mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing device comprising: a marker detection unit configured to detect a marker (P) in an image acquired by a terminal device for a plurality of users simultaneously using the terminal device , each user being positioned at fixed positions with respect to the terminal device , wherein the marker (P) includes an object which is placed on a top of the terminal device , and wherein it is determined which user of the plurality of users places the marker (P) on the top of the terminal device based on the position of the respective user; a retrieval unit configured to retrieve a data record in which the marker (P) detected in the image is associated with a specific function of the terminal device; and a calling function determination unit configured to determine the specific function to be called in the terminal device based on the data record found through the retrieval for the respective user, wherein the data record includes information generated based on a calling history, in which the specific function is called actually using the marker (P), and including use time information. a marker detection unit configured to detect a marker (P) in an image acquired by a terminal device for a plurality of users simultaneously using the terminal device , each user being positioned at fixed positions with respect to the terminal device , wherein the marker (P) includes an object which is placed on a top of the terminal device , and wherein it is determined which user of the plurality of users places the marker (P) on the top of the terminal device based on the position of the respective user; a retrieval unit configured to retrieve a data record in which the marker (P) detected in the image is associated with a specific function of the terminal device; and a calling function determination unit configured to determine the specific function to be called in the terminal device based on the data record found through the retrieval for the respective user, wherein the data record includes information generated based on a calling history, in which the specific function is called actually using the marker (P), and including use time information.
Oxygen carrier solid in particulate form for a chemical looping redox process such as chemical looping combustion, including: - copper in a total content X of between 5% and 39% expressed as copper oxide by weight relative to the total weight of the oxygen carrier solid in its oxidized form; - a ceramic matrix within which said copper is dispersed, said ceramic matrix including: -- a first sub-stoichiometric spinel of formula Mg a Al b O 4 , and/or -- a second sub-stoichiometric spinel of formula Cu c Mg d Al e O 4 , with: a = 4 1 + 3 × 100 − X Y − 1 × M MgO M Al 2 O 3 b = 8 × 100 − X − Y Y × M Al 2 O 3 M MgO + 3 × 100 − X − Y c = 4 X M CuO × X M CuO + Y M MgO + 3 × 100 − X − Y M Al 2 O 3 d = 4 Y M MgO ∗ X M CuO + Y M MgO + 3 × 100 − X − Y M Al 2 O 3 e = 8 × 100 − X − Y M Al 2 O 3 × X M CuO + Y M MgO + 3 × 100 − X − Y M Al 2 O 3 M MgO , M CuO and M Al2O3 being the molar masses of MgO, CuO and Al 2 O 3 , respectively, Y being the amount of MgO as a weight percentage of the oxygen carrier solid, with X being between 5% and 39%, Y being between 1% and 23%, and Y < -0.6342X + 26.223. - copper in a total content X of between 5% and 39% expressed as copper oxide by weight relative to the total weight of the oxygen carrier solid in its oxidized form; - a ceramic matrix within which said copper is dispersed, said ceramic matrix including: -- a first sub-stoichiometric spinel of formula Mg a Al b O 4 , and/or -- a second sub-stoichiometric spinel of formula Cu c Mg d Al e O 4 , -- a first sub-stoichiometric spinel of formula Mg a Al b O 4 , and/or -- a second sub-stoichiometric spinel of formula Cu c Mg d Al e O 4 , M MgO , M CuO and M Al2O3 being the molar masses of MgO, CuO and Al 2 O 3 , respectively, Y being the amount of MgO as a weight percentage of the oxygen carrier solid, with X being between 5% and 39%, Y being between 1% and 23%, and Y < -0.6342X + 26.223.
A time-and-frequency synchronization method performed by a terminal device (11; 90), the time-and-frequency synchronization method being characterized by comprising: receiving from a network device (12; 80) a Wake-Up Signal, WUS, for waking up the terminal device (11; 90) to receive a downlink signal carrying physical data and control information; determining whether the terminal device (11; 90) in an idle state or a Discontinuous Reception, DRX, state needs to be woken up to receive the downlink signal carrying physical data and control information; receiving a physical signal for time-and-frequency synchronization from the network device (12; 80), in response to determining that the terminal device (11; 90) in the idle state or the DRX state needs to be woken up to receive the downlink signal carrying physical data and control information; performing time-and-frequency synchronization in accordance with the physical signal for time-and-frequency synchronization; and receiving from the network device (12; 80) the downlink signal carrying physical data and control information, wherein a sequence of the physical signal for time-and-frequency synchronization is one of a Gold sequence, an m sequence, Zadoff-chu, ZC, sequence and a Computer Generated Sequence, CGS. receiving from a network device (12; 80) a Wake-Up Signal, WUS, for waking up the terminal device (11; 90) to receive a downlink signal carrying physical data and control information; determining whether the terminal device (11; 90) in an idle state or a Discontinuous Reception, DRX, state needs to be woken up to receive the downlink signal carrying physical data and control information; receiving a physical signal for time-and-frequency synchronization from the network device (12; 80), in response to determining that the terminal device (11; 90) in the idle state or the DRX state needs to be woken up to receive the downlink signal carrying physical data and control information; performing time-and-frequency synchronization in accordance with the physical signal for time-and-frequency synchronization; and receiving from the network device (12; 80) the downlink signal carrying physical data and control information, wherein a sequence of the physical signal for time-and-frequency synchronization is one of a Gold sequence, an m sequence, Zadoff-chu, ZC, sequence and a Computer Generated Sequence, CGS.
A substrate storage container comprising: a container body that stores substrates being supported by supporting pieces ; a door that opens and closes an opening side of the container body ; and an interface portion that is provided for the door to come in contact with external equipment , wherein when the door opens or closes the opening side of the container body , the door is intended to be connected to external equipment , wherein the container body , supporting pieces thereof, the door and the interface portion are all formed of conductive materials so that the surface resistance values thereof fall within the range of 10 3 to 10 12 Ω, and wherein a variation in surface resistance values among the container body , the supporting pieces , the door and the interface portion falls within the range of 0 to 10 6 Ω, wherein the container body or the door is configured to be mountable to a charged plate monitor, and wherein when the container body or the door is mounted to the charged plate monitor and applied with a voltage of 1000 V, the time in which the voltage attenuates from 1000 V to 100 V is equal to or shorter than 1 sec.
A suction board including a suction surface configured to come into close contact with a workpiece, the suction board comprising: an attaching adapter attached to a vacuum generating device; a nonwoven fabric sheet having a uniform thickness and being formed into a disk shape; and a ring-shaped holding body configured to movably support the nonwoven fabric sheet with respect to the attaching adapter , wherein the suction surface is formed by a flat surface of the nonwoven fabric sheet , the nonwoven fabric sheet is provided with an air-impermeable region on an outer peripheral portion and an air-permeable region excluding the outer peripheral portion, and a density of the air-impermeable region is higher than a density of the air-permeable region . an attaching adapter attached to a vacuum generating device; a nonwoven fabric sheet having a uniform thickness and being formed into a disk shape; and a ring-shaped holding body configured to movably support the nonwoven fabric sheet with respect to the attaching adapter , wherein the suction surface is formed by a flat surface of the nonwoven fabric sheet , the nonwoven fabric sheet is provided with an air-impermeable region on an outer peripheral portion and an air-permeable region excluding the outer peripheral portion, and a density of the air-impermeable region is higher than a density of the air-permeable region .
A wireless transmit/receive unit, WTRU, comprising: means for obtaining a first hybrid automatic repeat request, HARQ, power offset set for a single codeword transmission and a second HARQ power offset set for a multiple codeword transmission; means for receiving signaling from a NodeB; means for determining, based on the received signaling, whether to transmit the single codeword transmission or the multiple codeword transmission; and means for processing the single codeword based on the first HARQ power offset set or the multiple codewords based on the second HARQ power offset set. means for obtaining a first hybrid automatic repeat request, HARQ, power offset set for a single codeword transmission and a second HARQ power offset set for a multiple codeword transmission; means for receiving signaling from a NodeB; means for determining, based on the received signaling, whether to transmit the single codeword transmission or the multiple codeword transmission; and means for processing the single codeword based on the first HARQ power offset set or the multiple codewords based on the second HARQ power offset set.
An optical power supply system comprising: power sourcing equipment including a laser comprising a fiber laser , the laser being configured to oscillate with electric power to output wide-band feed light ; and a powered device configured to receive the feed light , the powered device comprising: a beam splitter configured to receive the feed light and split the feed light into a first feed light having a first wavelength band and a second feed light having a second wavelength band different from the first wavelength band; a first photoelectric conversion element configured to receive the first feed light from the beam splitter and convert the first feed light into electric power by photoelectric effect; and a second photoelectric conversion element configured to receive the second light from the beam splitter and convert the second light into electric power by photoelectric effect, wherein the first photoelectric conversion element and the second photoelectric conversion element respectively correspond to the received first feed light and the received second feed light and have respective conversion wavelength ranges different from each other. a beam splitter configured to receive the feed light and split the feed light into a first feed light having a first wavelength band and a second feed light having a second wavelength band different from the first wavelength band; receive the feed light and split the feed light into a first feed light having a first wavelength band and a second feed light having a second wavelength band different from the first wavelength band; a first feed light having a first wavelength band and a second feed light having a second wavelength band different from the first wavelength band; a first photoelectric conversion element configured to receive the first feed light from the beam splitter and convert the first feed light into electric power by photoelectric effect; and receive the first feed light from the beam splitter and convert the first feed light into electric power by photoelectric effect; and a second photoelectric conversion element configured to receive the second light from the beam splitter and convert the second light into electric power by photoelectric effect, receive the second light from the beam splitter and convert the second light into electric power by photoelectric effect, wherein the first photoelectric conversion element and the second photoelectric conversion element respectively correspond to the received first feed light and the received second feed light and have respective conversion wavelength ranges different from each other.
A transseptal guide wire , comprising a proximal end , a distal end and a middle segment , a. wherein the distal end comprises a transseptal needle attached to the guide wire distal end and positioned in continuity with the distal end of the guide wire ; b. wherein the proximal end is in continuity with the middle segment ; and characterized in that , c. wherein the middle segment is formed of a shape memory material to form at least one looped segment . a. wherein the distal end comprises a transseptal needle attached to the guide wire distal end and positioned in continuity with the distal end of the guide wire ; b. wherein the proximal end is in continuity with the middle segment ; and characterized in that , c. wherein the middle segment is formed of a shape memory material to form at least one looped segment .
An injection unit , comprising: a drive source ; a mechanical element which is operated by the drive source ; a cover which surrounds the drive source and the mechanical element ; and an exhaust fan configured to discharge gas inside the cover to the outside of the cover , characterized by : a mechanical element cover which surrounds the mechanical element ; and a mechanical element cooling fan configured to discharge gas inside the mechanical element cover to the outside of the mechanical element cover , wherein the cover surrounds the drive source , the mechanical element , the mechanical element cover , and the mechanical element cooling fan , and wherein the exhaust fan discharges the gas discharged from the inside of the mechanical element cover by the mechanical element cooling fan to the outside of the cover . a drive source ; a mechanical element which is operated by the drive source ; a cover which surrounds the drive source and the mechanical element ; and an exhaust fan configured to discharge gas inside the cover to the outside of the cover , a mechanical element cover which surrounds the mechanical element ; and a mechanical element cooling fan configured to discharge gas inside the mechanical element cover to the outside of the mechanical element cover , wherein the cover surrounds the drive source , the mechanical element , the mechanical element cover , and the mechanical element cooling fan , and wherein the exhaust fan discharges the gas discharged from the inside of the mechanical element cover by the mechanical element cooling fan to the outside of the cover .
Cutting filament for a vegetation cutting machine, such as a brush cutter or an edge trimmer, comprising a polymer matrix and a fiber load distributed within the matrix, characterized in that : - the polymer matrix comprises polyamide 6, copolyamide 6/66 and caprolactam, and - the fiber load comprises fibers having a length ranging from 4 to 6 mm. - the polymer matrix comprises polyamide 6, copolyamide 6/66 and caprolactam, and - the fiber load comprises fibers having a length ranging from 4 to 6 mm.
A liquid reservoir for use in a microgravity environment, the reservoir comprising: a bladder for holding a liquid, the bladder including flexible walls and at least one opening for extraction of the liquid from the bladder; and an internal structure that is shaped so as to form at least one channel to conduct the liquid from an end of the bladder that is distal to one of said at least one opening, the internal structure configured to prevent the walls of the bladder from blocking said at least one channel when suction is applied to one of said at least one opening, wherein the internal structure comprises a plurality of ribs that project inward from the walls of the bladder, wherein a rib of said plurality of ribs longitudinally extends from one of said at least opening to the distal end and wherein ends of the longitudinal internal ribs are curved toward at least one of said at least one opening of said ribbed flexible liquid reservoir. a bladder for holding a liquid, the bladder including flexible walls and at least one opening for extraction of the liquid from the bladder; and an internal structure that is shaped so as to form at least one channel to conduct the liquid from an end of the bladder that is distal to one of said at least one opening, the internal structure configured to prevent the walls of the bladder from blocking said at least one channel when suction is applied to one of said at least one opening, wherein the internal structure comprises a plurality of ribs that project inward from the walls of the bladder, wherein a rib of said plurality of ribs longitudinally extends from one of said at least opening to the distal end and wherein ends of the longitudinal internal ribs are curved toward at least one of said at least one opening of said ribbed flexible liquid reservoir.
A system for extraction of soluble flavoring components from a solid flavor carrier material into a brewing liquid, wherein the system comprises: - a process vessel arranged to receive solid flavor carrier material and to receive and discharge material comprising brewing liquid, wherein said process vessel comprises an inlet for solid flavor carrier material, a circulation inlet for material comprising brewing liquid and a circulation outlet for material comprising brewing liquid, and - a filtration device for separation of solid components from material comprising brewing liquid, wherein said filtration device is a cross-flow filtration device comprising at least one cross-flow filter within the cross-flow filtration device , a circulation inlet for material comprising brewing liquid, a circulation outlet for unfiltered material comprising brewing liquid and a closable outlet for filtered material comprising brewing liquid; wherein the process vessel and the filtration device are comprised in a recirculation loop for circulation of material comprising brewing liquid, wherein the circulation outlet of the process vessel is connected to the circulation inlet of the filtration device in the recirculation loop , wherein the circulation outlet of the filtration device is connected to the circulation inlet of the process vessel in the recirculation loop , wherein the system further comprises a recirculation pump for generating a flow of material comprising brewing liquid in the recirculation loop , wherein the recirculation loop further comprises a closable feed inlet for introduction of material comprising brewing liquid into the recirculation loop , said feed inlet being connected to the circulation inlet of the process vessel , and wherein the recirculation loop optionally further comprises a closable drain outlet . - a process vessel arranged to receive solid flavor carrier material and to receive and discharge material comprising brewing liquid, wherein said process vessel comprises an inlet for solid flavor carrier material, a circulation inlet for material comprising brewing liquid and a circulation outlet for material comprising brewing liquid, and - a filtration device for separation of solid components from material comprising brewing liquid, wherein said filtration device is a cross-flow filtration device comprising at least one cross-flow filter within the cross-flow filtration device , a circulation inlet for material comprising brewing liquid, a circulation outlet for unfiltered material comprising brewing liquid and a closable outlet for filtered material comprising brewing liquid;
A radio frequency identification, RFID, tag comprising: a dielectric substrate comprising a first side and a second side ; a ground plane coupled to a first side of the dielectric substrate , wherein the ground plane comprises a metal exclusion region ; an antenna coupled to the second side of the dielectric substrate , the antenna comprising: a first dipole arm including a first meandering feed line ; a second dipole arm including a second meandering feed line ; a meandering T-matching structure coupled to both the first dipole arm and the second dipole arm , wherein the first meandering feed line and the second meandering feed line are coupled to the meandering T-matching structure ; a first radiating part coupled to the first meandering feed line ; and a second radiating part coupled to the second meandering feed line , wherein a gap physically separates the first meandering feed line and the second meandering feed line , wherein the antenna is coupled to the metal exclusion region through a first via and a second via in the dielectric substrate ; and an integrated circuit coupled to the first side of the dielectric substrate ; wherein the antenna comprises a first frequency tuning stub and a second frequency tuning stub . a ground plane coupled to a first side of the dielectric substrate , wherein the ground plane comprises a metal exclusion region ; an antenna coupled to the second side of the dielectric substrate , the antenna comprising: a first dipole arm including a first meandering feed line ; a second dipole arm including a second meandering feed line ; a meandering T-matching structure coupled to both the first dipole arm and the second dipole arm , wherein the first meandering feed line and the second meandering feed line are coupled to the meandering T-matching structure ; a first radiating part coupled to the first meandering feed line ; and a second radiating part coupled to the second meandering feed line , a first dipole arm including a first meandering feed line ; a second dipole arm including a second meandering feed line ; a meandering T-matching structure coupled to both the first dipole arm and the second dipole arm , wherein the first meandering feed line and the second meandering feed line are coupled to the meandering T-matching structure ; a first radiating part coupled to the first meandering feed line ; and a second radiating part coupled to the second meandering feed line , wherein a gap physically separates the first meandering feed line and the second meandering feed line , wherein the antenna is coupled to the metal exclusion region through a first via and a second via in the dielectric substrate ; and an integrated circuit coupled to the first side of the dielectric substrate ; wherein the antenna comprises a first frequency tuning stub and a second frequency tuning stub .
An airtight loose powder case structure having a powder puff, comprising a base , an upper lid , an inner cup , and the powder puff , wherein the powder puff is provided in the inner cup ; the inner cup is provided in the base ; the upper lid overlays an opening of the base ; the upper lid is configured to seal and unseal the opening of the base ; wherein screw threads matched with each other are respectively provided on the upper lid and the opening of the base ; an inner lid is further provided; the inner lid is configured to seal and unseal an opening of the inner cup ; the inner lid is located under the upper lid ; characterized in that the inner lid is configured to move freely relative to the upper lid in an axial direction; the inner lid is configured to rotate freely relative to the upper lid in a circumferential direction; a circle of seal ring is provided under the inner lid ; the seal ring is configured to abut against an inner side of the inner cup ; and the powder puff is located in the seal ring .