mhurhangee/ep-ind-claims huggingface dataset:
A method of producing hollow organic particles by producing a multistaged emulsion polymer by sequential polymerization (i) wherein the multistaged emulsion polymer comprises at least a core stage polymer and a sheath stage polymer, and the core stage polymer comprises by way of polymerized units from 5 to 99.5 wt%, based on the weight of the core stage polymer, of at least one hydrophilic ethylenically unsaturated monomer, and from 0 to 95 wt%, based on the weight of the core stage polymer, of at least one nonionic ethylenically unsaturated monomer as well as 0.5 to 20 wt% of at least one nonionic polyalkylene oxide containing additive, based on the weight of the core stage polymer, and wherein the sheath stage polymer comprises by way of polymerized units not less than 50 wt% of a nonionic ethylenically unsaturated monomer, and also ii) neutralizing the resultant particles with at least one base up to a pH of not less than 7.5, and also optionally polymerizing further shells comprising one or more than one nonionic ethylenically unsaturated monomer. (i) wherein the multistaged emulsion polymer comprises at least a core stage polymer and a sheath stage polymer, and the core stage polymer comprises by way of polymerized units from 5 to 99.5 wt%, based on the weight of the core stage polymer, of at least one hydrophilic ethylenically unsaturated monomer, and from 0 to 95 wt%, based on the weight of the core stage polymer, of at least one nonionic ethylenically unsaturated monomer as well as 0.5 to 20 wt% of at least one nonionic polyalkylene oxide containing additive, based on the weight of the core stage polymer, and wherein the sheath stage polymer comprises by way of polymerized units not less than 50 wt% of a nonionic ethylenically unsaturated monomer, and also ii) neutralizing the resultant particles with at least one base up to a pH of not less than 7.5, and also optionally polymerizing further shells comprising one or more than one nonionic ethylenically unsaturated monomer.
A method for controlling a connection between a terminal and a network, the method being characterized by: receiving, by the terminal, a broadcast message from an access network device, wherein the broadcast message comprises a group identifier and a packet filter; and discarding, by the terminal if determining that a group identifier of the terminal matches the group identifier of the broadcast message, an uplink data packet matching the packet filter. receiving, by the terminal, a broadcast message from an access network device, wherein the broadcast message comprises a group identifier and a packet filter; and discarding, by the terminal if determining that a group identifier of the terminal matches the group identifier of the broadcast message, an uplink data packet matching the packet filter.
An electric rotary machine having a rotor core fixed to a rotary shaft, a plurality of magnets fitted to the rotor core on the outer periphery thereof along the peripheral direction and a magnet fixing structure comprising: holder anchoring sections (45, 51) formed on the outer periphery of the rotor core at predetermined regular intervals along the peripheral direction; a plurality of holder members made of synthetic resin rigidly fitted respectively to the holder anchoring sections (45, 51) so as to extend along the rotary shaft; and magnet containing sections, each defined by two adjacently located ones of the holder members and the outer peripheral surface of the rotor core so as to receive corresponding ones of the magnets press-fitted therein in the direction of the rotary shaft, wherein each of the holder members has first contact sections formed respectively on magnet holding pieces so as to contact a corresponding one of the magnets and second contact sections formed on a main body section so as to contact the corresponding one of the magnets, characterized in that a non-contact area that does not contact the corresponding one of the magnets is arranged between the each of the first contact sections and the corresponding second contact sections of each of the holder members. holder anchoring sections (45, 51) formed on the outer periphery of the rotor core at predetermined regular intervals along the peripheral direction; a plurality of holder members made of synthetic resin rigidly fitted respectively to the holder anchoring sections (45, 51) so as to extend along the rotary shaft; and magnet containing sections, each defined by two adjacently located ones of the holder members and the outer peripheral surface of the rotor core so as to receive corresponding ones of the magnets press-fitted therein in the direction of the rotary shaft, wherein each of the holder members has first contact sections formed respectively on magnet holding pieces so as to contact a corresponding one of the magnets and second contact sections formed on a main body section so as to contact the corresponding one of the magnets, characterized in that a non-contact area that does not contact the corresponding one of the magnets is arranged between the each of the first contact sections and the corresponding second contact sections of each of the holder members.
A method to attach pluripotent stem cells to a planar substrate containing up to about 12% N, from at least about 12% O to at least about 55% O, a contact angle from about 18 degrees to about 32 degrees, and lacking an adlayer and a feeder cell layer, comprising the steps of: a. using an obtainedsuspension of pluripotent stem cells, and b. Adding the cell suspension to the planar substrate and allowing the cells to attach. a. using an obtainedsuspension of pluripotent stem cells, and b. Adding the cell suspension to the planar substrate and allowing the cells to attach.
A composition comprising (i) 9,10-dimethoxy-2-(2,4,6-trimethylphenylimino)-3-(N-carbamoyl-2-aminoethyl)-3,4,6,7-tetrahydro-2H-pyrimido[6,1-a]isoquinolin-4-one or a pharmaceutically acceptable acid addition salt thereof and (ii) a CFTR potentiator or a CFTR corrector.
A method for presenting data in a scalable format, comprising: obtaining input from multiple sensors, characterized in that: said input includes parameter values based on operating parameters of the sensors; the method being further characterized by comprising: grouping a subset of said multiple sensors based on similar parameter values; and allocating a section of a display screen to said subset based on the number of said multiple sensors in said subset, wherein allocating said section of said display screen to said subset includes dividing the number of said multiple sensors in said subset into a total number of said multiple sensors to determine a size of the section. said input includes parameter values based on operating parameters of the sensors; the method being further characterized by comprising: grouping a subset of said multiple sensors based on similar parameter values; and allocating a section of a display screen to said subset based on the number of said multiple sensors in said subset, wherein allocating said section of said display screen to said subset includes dividing the number of said multiple sensors in said subset into a total number of said multiple sensors to determine a size of the section.
A direct field acoustic testing system comprising: a control microphone (C1...Cn th); a controller operatively coupled to the control microphone (C1...Cn th) such that the controller receives at least one input signal from the control microphone (C1...Cn th); at least four acoustic transducer groups, each transducer groups including at least one transducer, wherein the at least four acoustic transducer groups are arranged with the control microphone (C1...Cn th) in a test layout and operatively coupled to the controller such that the output of each transducer is separately controllable by the controller such that a separate output signal is received by each transducer from the controller; and a separately adjustable signal modifier disposed in a signal path between the controller and the at least four acoustic transducers, characterized in that the signal modifier is configured to introduce a time delay configured to be adjusted such that the output of at least two of the at least four acoustic transducers are timed to arrive at a center of the test layout at sufficiently different times so as to reduce spectral anomalies. a control microphone (C1...Cn th); a controller operatively coupled to the control microphone (C1...Cn th) such that the controller receives at least one input signal from the control microphone (C1...Cn th); at least four acoustic transducer groups, each transducer groups including at least one transducer, wherein the at least four acoustic transducer groups are arranged with the control microphone (C1...Cn th) in a test layout and operatively coupled to the controller such that the output of each transducer is separately controllable by the controller such that a separate output signal is received by each transducer from the controller; and a separately adjustable signal modifier disposed in a signal path between the controller and the at least four acoustic transducers, characterized in that the signal modifier is configured to introduce a time delay configured to be adjusted such that the output of at least two of the at least four acoustic transducers are timed to arrive at a center of the test layout at sufficiently different times so as to reduce spectral anomalies.
A shielding device for a shielding vehicle for protecting from thrown up mowed material, in particular for the upkeep of green strips alongside a road, comprising at least the following components: - a cantilever element for securing onto a shielding vehicle and attached there for spanning a neighbouring strip from a lane of the relevant shielding vehicle; - a first shielding surface element for delimiting a neighbouring strip on an outer side, wherein the first shielding surface element extends in a main travelling direction of a shielding vehicle and the direction of extension on the outer side can be aligned to be parallel to a neighbouring strip; - a second shielding surface element for delimiting a neighbouring strip on a lane side, wherein the second shielding surface element extends in a main travelling direction of a shielding vehicle and the direction of extension on the lane side can be aligned to be parallel to a neighbouring strip, wherein the shielding surface elements (20, 21) essentially span the whole distance between the cantilever element and the ground in a shielding manner, characterised in that the distance between the first shielding surface element and the second shielding surface element can be varied. - a cantilever element for securing onto a shielding vehicle and attached there for spanning a neighbouring strip from a lane of the relevant shielding vehicle; - a first shielding surface element for delimiting a neighbouring strip on an outer side, wherein the first shielding surface element extends in a main travelling direction of a shielding vehicle and the direction of extension on the outer side can be aligned to be parallel to a neighbouring strip; - a second shielding surface element for delimiting a neighbouring strip on a lane side, wherein the second shielding surface element extends in a main travelling direction of a shielding vehicle and the direction of extension on the lane side can be aligned to be parallel to a neighbouring strip,
A method for producing a thermostat insert with a thermostatic work element and with a base body, wherein the base body is formed with a base plate which forms a valve seat and which can be arranged on a housing lid, wherein the base body is produced in one piece with several, preferably two or three guide arms which protrude from the base plate and wherein a return spring, such as a substantially cylindrical return spring, which is supported on the guide arms is provided, characterised in that a moved element, in particular a housing of a thermostatic work element, can be guided through the protruding guide arms in case of a lifting movement, wherein the base body is produced as a plastic injection moulded part.
An alignment method for effecting alignment of a mold with a member to be processed when a pattern is formed on the member to be processed by using a pattern provided to the mold, said alignment method being characterized by: effecting alignment of the mold with the member to be processed in an in-plane direction of a pattern area of the mold by using first positional information about a relative positional relationship between a first mark provided at a surface at the same level as a pattern area-formed surface of the mold and a second mark located away from the pattern area-formed surface and using second positional information about a relative positional relationship between the second mark and a third mark provided to the member to be processed. effecting alignment of the mold with the member to be processed in an in-plane direction of a pattern area of the mold by using first positional information about a relative positional relationship between a first mark provided at a surface at the same level as a pattern area-formed surface of the mold and a second mark located away from the pattern area-formed surface and using second positional information about a relative positional relationship between the second mark and a third mark provided to the member to be processed.
A centrifugal processing unit for directing the movement of substances within a sample processing cartridge, the centrifugal processing unit comprising: at least one rotor for receiving the sample processing cartridge, at least one rotor drive for rotating the at least one rotor about a respective rotor axis to create a centrifugal force, a control for accelerating and decelerating the at least one rotor, wherein the centrifugal processing unit comprising at least one pivot accommodation and at least one fix accommodation for receiving the sample processing cartridge that are arranged on the at least one rotor, wherein each pivot accommodation being adapted to allow a free pivoting motion of the received sample processing cartridge about a respective pivot axis, wherein each pivot axis being orthogonal to the rotor axis and to the respective force vector of the centrifugal force, characterized in that a fixation element, designed to prevent any pivoting motion of the received sample processing cartridge, is removably arranged at the fix accommodation. at least one rotor for receiving the sample processing cartridge, at least one rotor drive for rotating the at least one rotor about a respective rotor axis to create a centrifugal force, a control for accelerating and decelerating the at least one rotor, wherein the centrifugal processing unit comprising at least one pivot accommodation and at least one fix accommodation for receiving the sample processing cartridge that are arranged on the at least one rotor, wherein each pivot accommodation being adapted to allow a free pivoting motion of the received sample processing cartridge about a respective pivot axis, wherein each pivot axis being orthogonal to the rotor axis and to the respective force vector of the centrifugal force, characterized in that a fixation element, designed to prevent any pivoting motion of the received sample processing cartridge, is removably arranged at the fix accommodation.
A method for transmitting media content in a multimedia system supporting a moving picture experts group, MPEG media transport, MMT, protocol, the method comprising: generating at a delivery function layer, one or more MMT packets based on a media processing unit, MPU, fragmented into one or more media fragment units, MFUs,, each MMT packet including a MMT packet header and a MMT payload; and transmitting the one or more MMT packets, wherein payload data included in the MMT payload comprises one of MPU metadata of the MPU or media data element derived from the one or more MFUs, wherein each of the one or more MMT packets comprises a data type field indicating that the respective payload data comprises the MPU metadata of the MPU in case that the MMT payload comprises the MPU metadata or indicating that the respective payload data comprises the media data element derived from the one or more MFUs in case that the MMT payload comprises the media data element, wherein the MPU metadata of the MPU comprises file type information of a file to be transmitted, wherein the data type field is set to a first value indicating that the respective payload data includes the MPU metadata of the MPU if the respective payload data includes the MPU metadata of the MPU, and wherein the data type field is set to a second value indicating that the respective payload data includes the media data element derived from the one or more MFUs if the payload data includes the media data element derived from the one or more MFUs. generating at a delivery function layer, one or more MMT packets based on a media processing unit, MPU, fragmented into one or more media fragment units, MFUs,, each MMT packet including a MMT packet header and a MMT payload; and transmitting the one or more MMT packets, wherein payload data included in the MMT payload comprises one of MPU metadata of the MPU or media data element derived from the one or more MFUs, wherein each of the one or more MMT packets comprises a data type field indicating that the respective payload data comprises the MPU metadata of the MPU in case that the MMT payload comprises the MPU metadata or indicating that the respective payload data comprises the media data element derived from the one or more MFUs in case that the MMT payload comprises the media data element, wherein the MPU metadata of the MPU comprises file type information of a file to be transmitted, wherein the data type field is set to a first value indicating that the respective payload data includes the MPU metadata of the MPU if the respective payload data includes the MPU metadata of the MPU, and wherein the data type field is set to a second value indicating that the respective payload data includes the media data element derived from the one or more MFUs if the payload data includes the media data element derived from the one or more MFUs.
A copolymer composition comprising: a) 5-95 pphwm, preferably 10-90 pphwm of vinyl acetate; and b) 95-5 pphwm, preferably 90-10 pphwm of vinyl 3,5,5-trimethylhexanoate, wherein the corresponding 3,5,5-trimethylhexanoic acid has a content of the 3,5,5-trimethylhexanoic acid isomer of at least 88% by weight. a) 5-95 pphwm, preferably 10-90 pphwm of vinyl acetate; and b) 95-5 pphwm, preferably 90-10 pphwm of vinyl 3,5,5-trimethylhexanoate, wherein the corresponding 3,5,5-trimethylhexanoic acid has a content of the 3,5,5-trimethylhexanoic acid isomer of at least 88% by weight.
Annular burner for a turbomachine, including a flameholder gutter in the form of a ring and of which the base is upstream, a fuel manifold and a protective screen of the manifold being housed in the gutter, characterised in that the gutter includes an upstream cavity, that the screen includes, on its upstream section, at least one ventilation orifice of the space situated between the screen and the manifold, and by the fact that the manifold includes at least one pair of fuel-spraying orifices (8, 8'), the screen including at least one pair of corresponding orifices (10, 10'), a ventilation orifice being drilled into the screen at the same angular position as the pair of orifices (10, 10').
A treatment element (30, 30', 30", 30"') for use with a dental implant part inserted into a patient's jaw bone, having a base body provided for mechanical connection with the dental implant part and including at least one media channel for a cleaning liquid, wherein the base body carries a first conductor element, which forms an electrical current path and can be connected to the dental implant part, and a second conductor element, which is electrically insulated from the first conductor element and which forms an electrical current path to a contact arranged on the end side and whose contact can be positioned in a spatial area in the vicinity of the dental implant part, characterized in that the second conductor element is formed by one or several of the media channels.
A dishwasher, comprising: a washing tub to which dishes are loaded; a sump disposed in a lower part of the washing tub and storing washing water temporarily; a heater disposed inside the sump and heating washing water; a turbidity sensor disposed inside the sump and measuring turbidity of washing water; and a controller performing on-off control of the heater to adjust temperature of washing water according to the turbidity of the washing water measured by the turbidity sensor, wherein the controller controls total operation time of the heater to be constant during the operation of the dishwasher. a washing tub to which dishes are loaded; a sump disposed in a lower part of the washing tub and storing washing water temporarily; a heater disposed inside the sump and heating washing water; a turbidity sensor disposed inside the sump and measuring turbidity of washing water; and a controller performing on-off control of the heater to adjust temperature of washing water according to the turbidity of the washing water measured by the turbidity sensor, wherein the controller controls total operation time of the heater to be constant during the operation of the dishwasher.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from the base station, a master information block, MIB, including first control resource set, CORESET, information for a first physical downlink control channel, PDCCH, associated with remaining minimum system information, RMSI; receiving, from the base station, the first PDCCH based on the first CORESET information; receiving, from the base station, the RMSI based on the first PDCCH, the RMSI comprising system information on random access procedure including second CORESET information for a second PDCCH associated with a random access response, RAR; transmitting, to the base station, a random access preamble based on the system information on random access procedure; receiving, from the base station, the second PDCCH based on the second CORESET information; and receiving, from the base station, the RAR based on the second PDCCH. receiving, from the base station, a master information block, MIB, including first control resource set, CORESET, information for a first physical downlink control channel, PDCCH, associated with remaining minimum system information, RMSI; receiving, from the base station, the first PDCCH based on the first CORESET information; receiving, from the base station, the RMSI based on the first PDCCH, the RMSI comprising system information on random access procedure including second CORESET information for a second PDCCH associated with a random access response, RAR; transmitting, to the base station, a random access preamble based on the system information on random access procedure; receiving, from the base station, the second PDCCH based on the second CORESET information; and receiving, from the base station, the RAR based on the second PDCCH.