mhurhangee/patent-ind-claim-en huggingface dataset:
A peripheral component interconnect express PCIe-based data transmission method, comprising: encapsulating (S501), by a first node, data into a transaction layer packet, TLP, wherein the TLP comprises a packet header and an extension header, the packet header comprises a first field and a second field, the first field, the second field, and the extension header are used to indicate first encapsulation information, and the first encapsulation information comprises a data type of the data and at least one encapsulation parameter corresponding to the data type; and sending (S502), by the first node, the TLP to a second node. encapsulating (S501), by a first node, data into a transaction layer packet, TLP, wherein the TLP comprises a packet header and an extension header, the packet header comprises a first field and a second field, the first field, the second field, and the extension header are used to indicate first encapsulation information, and the first encapsulation information comprises a data type of the data and at least one encapsulation parameter corresponding to the data type; and sending (S502), by the first node, the TLP to a second node.
An NMR analyzer , comprising: an NMR console ; at least one temperature sensor onboard or proximate the NMR console; and at least one processor in communication with the NMR console, wherein the at least one processor is configured to apply a post-signal collection temperature sensitivity correction to signal data, wherein the at least one processor is configured to adjust NMR signal intensity associated with a biosample undergoing analysis using a correction factor that varies based on (i) temperature data from the at least one temperature sensor and (ii) a model of temperature sensitivity of NMR signal intensity over a defined ambient temperature range of 15.5 °C - 29.4 °C (60°F - 85°F), the model having been generated by detecting a concentration standard assay signal on said NMR console and/or similar NMR consoles at an assembly site or at a use site over a controlled ambient temperature range, then generating the model of temperature sensitivity from the resulting signals; and wherein the at least one processor is configured to generate quantitative measurements using the adjusted NMR signal intensity. an NMR console ; at least one temperature sensor onboard or proximate the NMR console; and at least one processor in communication with the NMR console, wherein the at least one processor is configured to apply a post-signal collection temperature sensitivity correction to signal data, wherein the at least one processor is configured to adjust NMR signal intensity associated with a biosample undergoing analysis using a correction factor that varies based on (i) temperature data from the at least one temperature sensor and (ii) a model of temperature sensitivity of NMR signal intensity over a defined ambient temperature range of 15.5 °C - 29.4 °C (60°F - 85°F), the model having been generated by detecting a concentration standard assay signal on said NMR console and/or similar NMR consoles at an assembly site or at a use site over a controlled ambient temperature range, then generating the model of temperature sensitivity from the resulting signals; and wherein the at least one processor is configured to generate quantitative measurements using the adjusted NMR signal intensity.
An information pushing method, applied to a terminal device, wherein the terminal device comprises a coprocessor, an application processor, a modem, a positioning module, and an output device, the coprocessor is separately connected to the positioning module, the application processor, and the modem, and the application processor is connected to the output device; the terminal device stores cell information of at least one cell, the at least one cell comprises a first cell, and the method comprises: after determining by using the modem that the terminal device enters the first cell, triggering, by the coprocessor in a screen-locked state, to enable the positioning module, and obtaining, by using the positioning module, a first geographical location of the terminal device in the first cell; determining, by the coprocessor, that a place of interest exists in a range covered by the first cell and is located near the first geographical location; and sending, by the coprocessor, information of the place of interest to the application processor, wherein the application processor outputs the information of the place of interest by using the output device; wherein the method further comprises: triggering, by the coprocessor, the application processor to wake up based on the cell information of the first cell; downloading, by the application processor, cell information of a new cell from a server, wherein the new cell comprises another cell that is located around the first cell and that does not exist in the at least one cell; and storing, by the application processor, the downloaded cell information of the new cell. after determining by using the modem that the terminal device enters the first cell, triggering, by the coprocessor in a screen-locked state, to enable the positioning module, and obtaining, by using the positioning module, a first geographical location of the terminal device in the first cell; determining, by the coprocessor, that a place of interest exists in a range covered by the first cell and is located near the first geographical location; and sending, by the coprocessor, information of the place of interest to the application processor, wherein the application processor outputs the information of the place of interest by using the output device; wherein the method further comprises: triggering, by the coprocessor, the application processor to wake up based on the cell information of the first cell; triggering, by the coprocessor, the application processor to wake up based on the cell information of the first cell;
An apparatus for transforming teeth into bone graft material suitable to treat said teeth by immersion in liquids, and comprising: - a reactor device including contact means , a reaction chamber and an ejection chamber , - a cartridge including a plurality of containers for said processing and washing liquids, separated liquid-tight from each other, and - a fragmentation device suitable to fragment said teeth, and characterised in that it comprises: - a guide suitable to detachably connect said cartridge and said fragmentation device to said apparatus , - a movement device suitable to detachably connect at least partially said reactor device to said apparatus and allow said reactor device to sequentially withdraw said teeth from said fragmentation device and said liquids from said cartridge . - a reactor device including contact means , a reaction chamber and an ejection chamber , - a cartridge including a plurality of containers for said processing and washing liquids, separated liquid-tight from each other, and - a fragmentation device suitable to fragment said teeth, and characterised in that it comprises: - a guide suitable to detachably connect said cartridge and said fragmentation device to said apparatus , - a movement device suitable to detachably connect at least partially said reactor device to said apparatus and allow said reactor device to sequentially withdraw said teeth from said fragmentation device and said liquids from said cartridge . - a guide suitable to detachably connect said cartridge and said fragmentation device to said apparatus , - a movement device suitable to detachably connect at least partially said reactor device to said apparatus and allow said reactor device to sequentially withdraw said teeth from said fragmentation device and said liquids from said cartridge .
An apparatus for seal cleaning for use in making water soluble pouches containing a granular composition comprising: a plurality of forming pockets spaced apart from one another in a machine direction (MD) and moveable in said machine direction, each said forming pocket having a longitudinal axis (L) and a pair of transverse edges on opposing sides of said longitudinal axis; characterized in that the apparatus comprises a chamber spaced apart from said forming pockets, wherein said chamber has an open slot oriented towards said forming pockets, wherein said slot is at least as laterally extensive away from said longitudinal axis as said transverse edges of said forming pockets; a plurality of pocket caps within said chamber spaced apart from one another and moveable in said machine direction across said slot, wherein said pocket caps are operatively coupled with said forming pockets and said pocket caps move in registration with said forming pockets; and an airflow generator in fluid communication with said chamber. a plurality of forming pockets spaced apart from one another in a machine direction (MD) and moveable in said machine direction, each said forming pocket having a longitudinal axis (L) and a pair of transverse edges on opposing sides of said longitudinal axis; characterized in that the apparatus comprises a chamber spaced apart from said forming pockets, wherein said chamber has an open slot oriented towards said forming pockets, wherein said slot is at least as laterally extensive away from said longitudinal axis as said transverse edges of said forming pockets; a plurality of pocket caps within said chamber spaced apart from one another and moveable in said machine direction across said slot, wherein said pocket caps are operatively coupled with said forming pockets and said pocket caps move in registration with said forming pockets; and an airflow generator in fluid communication with said chamber.
A method of transmitting data in a wireless communication network , comprising: receiving precoding information comprising a channel direction indicator or a precoding matrix indicator and sent by a first user equipment (120a - 120d) to a cell serving the first user equipment (120a - 120d); receiving spatial feedback information sent by a second user equipment (120a - 120d) to the cell , the second user equipment (120a - 120d) not being served by the cell but by a second cell; determining whether to schedule the first user equipment (120a - 120d) based on the precoding information from the first user equipment (120a - 120d) and the spatial feedback information from the second user equipment (120a - 120d); and if a decision is made to schedule the first UE, performing the following steps: selecting a precoding matrix, based on the precoding information from the first user equipment (120a - 120d) and the spatial feedback information from the second user equipment (120a - 120d), for steering the data transmission toward the first user equipment (120a - 120d) and away from the second user equipment (120a - 120d); and sending a data transmission by the cell using the selected precoding matrix. receiving precoding information comprising a channel direction indicator or a precoding matrix indicator and sent by a first user equipment (120a - 120d) to a cell serving the first user equipment (120a - 120d); receiving spatial feedback information sent by a second user equipment (120a - 120d) to the cell , the second user equipment (120a - 120d) not being served by the cell but by a second cell; determining whether to schedule the first user equipment (120a - 120d) based on the precoding information from the first user equipment (120a - 120d) and the spatial feedback information from the second user equipment (120a - 120d); and if a decision is made to schedule the first UE, performing the following steps: selecting a precoding matrix, based on the precoding information from the first user equipment (120a - 120d) and the spatial feedback information from the second user equipment (120a - 120d), for steering the data transmission toward the first user equipment (120a - 120d) and away from the second user equipment (120a - 120d); and sending a data transmission by the cell using the selected precoding matrix. selecting a precoding matrix, based on the precoding information from the first user equipment (120a - 120d) and the spatial feedback information from the second user equipment (120a - 120d), for steering the data transmission toward the first user equipment (120a - 120d) and away from the second user equipment (120a - 120d); and sending a data transmission by the cell using the selected precoding matrix.
An electronic device having a touch panel , the electronic device comprising: a display control unit configured to display on the touch panel a user interface related to start of actuation of a target system different from the electronic device ; a detection unit configured to detect an operation of the user interface on the touch panel ; and an instruction unit configured to transmit an instruction signal according to the operation detected by the detection unit to the target system , characterized in that the instruction unit measures a signal intensity of wireless communication with the target system in accordance with an end of the operation and transmits the instruction signal if the signal intensity is less than or equal to a predetermined threshold. a display control unit configured to display on the touch panel a user interface related to start of actuation of a target system different from the electronic device ; a detection unit configured to detect an operation of the user interface on the touch panel ; and an instruction unit configured to transmit an instruction signal according to the operation detected by the detection unit to the target system , characterized in that the instruction unit measures a signal intensity of wireless communication with the target system in accordance with an end of the operation and transmits the instruction signal if the signal intensity is less than or equal to a predetermined threshold.
A method performed by a network node , the network node and a User Equipment, UE, operate in a wireless communications system , the method comprising: - receiving from the UE an indication of whether or not the UE is indoors, - selecting transmission parameters based on the received indication, wherein the transmission parameters are the rank scheme related to Multiple Input Multiple Output, MIMO, - sending a message to the UE , wherein the message comprises information about the selected transmission parameters. - receiving from the UE an indication of whether or not the UE is indoors, - selecting transmission parameters based on the received indication, wherein the transmission parameters are the rank scheme related to Multiple Input Multiple Output, MIMO, - sending a message to the UE , wherein the message comprises information about the selected transmission parameters.
Nanostructure composed of one or multiple concentric layers around a carbon or vacuum core, comprising said one or multiple concentric layers at least one of the following components in crystalline or polycrystalline form: intrinsic silicon, intrinsic germanium, p or n doped silicon, p or n doped germanium, intrinsic silicon-germanium alloys, p or n doped silicon-germanium alloys, silicon oxide, germanium oxide, silicon nitride, germanium nitride or a combination thereof, characterized in that said nanostructure comprises metal particles attached by means of nanowires to at least one of said concentric layers or in that said nanostructure comprises holes in at least one of said concentric layers, which holes correspond to previously deposited metal particles which have been removed.
A shelf module for a shelf system, the shelf module defining a pair of substantially parallel, lengthwise extending edges and a pair of substantially parallel end edges , and comprising an array of lengthwise extending slats spaced apart across the width of the module , and an array of spaced apart ribs extending between these slats which are spaced apart along the length of the module, the shelf module being characterised in that at least a pair of the slats comprise outwardly and oppositely directed partition retaining connection means at or toward an upper edge thereof, between which a portion of a partition can be secured.
A speaker system comprising: an acoustic assembly comprising: an acoustic enclosure; and an electro-acoustic transducer coupled to the acoustic enclosure; and a deflector assembly comprising: an acoustic deflector that defines at least a portion of an electronics compartment ; and electronics , for powering the electro-acoustic transducer, mounted within the electronics compartment, wherein the deflector assembly is configured to provide convective cooling of the electronics via a stack effect air flow through the electronics compartment, wherein the acoustic deflector comprises an acoustically reflective body having a substantially conical outer surface that is configured to be disposed adjacent an acoustically radiating surface of the electro-acoustic transducer, wherein the acoustically reflective body has a truncated conical shape comprising a top surface that is configured to be centered with respect to a motion axis of the electro-acoustic transducer, characterised in that the substantially reflective body has an opening in the top surface that extends into the electronics compartment enabling air heated by the electronics to be exhausted out of electronics compartment. an acoustic assembly comprising: an acoustic enclosure; and an electro-acoustic transducer coupled to the acoustic enclosure; and an acoustic enclosure; and an electro-acoustic transducer coupled to the acoustic enclosure; and a deflector assembly comprising: an acoustic deflector that defines at least a portion of an electronics compartment ; and electronics , for powering the electro-acoustic transducer, mounted within the electronics compartment, an acoustic deflector that defines at least a portion of an electronics compartment ; and electronics , for powering the electro-acoustic transducer, mounted within the electronics compartment, wherein the deflector assembly is configured to provide convective cooling of the electronics via a stack effect air flow through the electronics compartment, wherein the acoustic deflector comprises an acoustically reflective body having a substantially conical outer surface that is configured to be disposed adjacent an acoustically radiating surface of the electro-acoustic transducer, wherein the acoustically reflective body has a truncated conical shape comprising a top surface that is configured to be centered with respect to a motion axis of the electro-acoustic transducer, characterised in that the substantially reflective body has an opening in the top surface that extends into the electronics compartment enabling air heated by the electronics to be exhausted out of electronics compartment.
A measurement method, wherein the method comprises: dividing, by a terminal device , all neighbors detected on a same measurement frequency into at least two measurement groups; and; performing radio resource management, RRM measurement separately on the at least two measurement groups based on an RRM measurement parameter corresponding to each measurement group, wherein the at least two measurement groups are in a one-to-one correspondence with at least two RRM measurement parameters, and the terminal device has different power consumption when performing RRM measurement on the at least two measurement groups based on the corresponding RRM measurement parameters; wherein the RRM measurement parameter comprises at least one of a measurement period, an SMTC period, a measurement moment in an SMTC window, a maximum quantity of to-be-reported beams in each cell, a parameter indicating whether to report a beam-level measurement result, and a report interval. dividing, by a terminal device , all neighbors detected on a same measurement frequency into at least two measurement groups; and; performing radio resource management, RRM measurement separately on the at least two measurement groups based on an RRM measurement parameter corresponding to each measurement group, wherein the at least two measurement groups are in a one-to-one correspondence with at least two RRM measurement parameters, and the terminal device has different power consumption when performing RRM measurement on the at least two measurement groups based on the corresponding RRM measurement parameters; wherein the RRM measurement parameter comprises at least one of a measurement period, an SMTC period, a measurement moment in an SMTC window, a maximum quantity of to-be-reported beams in each cell, a parameter indicating whether to report a beam-level measurement result, and a report interval.
A recombinant host capable of producing a steviol glycoside which overexpresses a nucleic acid which encodes a polypeptide which mediates steviol glycoside transport and which polypeptide comprises the amino acid sequence set forth in SEQ ID NO: 29 or an amino acid sequence having at least 70% sequence identity thereto, and wherein the amount of total steviol glycoside outside the cell as compared to inside the cell is higher as compared to a corresponding cell which does not overexpress a nucleic acid which encodes a polypeptide which mediates steviol glycoside transport and which polypeptide comprises the amino acid sequence set forth in SEQ ID NO: 29 or an amino acid sequence having at least 70% sequence identity thereto, wherein the recombinant host is a yeast.
Expansible anchor for an anchoring in an anchoring hole in an anchoring substrate, having an expansion sleeve which is expansible in order to anchor the expansible anchor in the anchoring hole, and having an expander body which is arranged to be drawn into the expansion sleeve in order to expand the expansion sleeve , characterised in that the expansible anchor has a tensioning device for the expansion sleeve , which tensioning device holds the expansion sleeve under tension in a non-expanded setting position in such a way that the expansion sleeve itself is under tension; and the expansion sleeve expands as a result of the tension when it comes free of the tensioning device .
Reinforcement cage for a diaphragm wall panel which, in cross section, is substantially square with a wide side and a narrow side and is produced in a trench in the ground , wherein the reinforcement cage has reinforcement rods that are assembled in a grid-like manner and form a cuboidal base body , wherein the reinforcement cage is designed at least in a lateral region, which can be allocated to a narrow side of the diaphragm wall panel, with spacers which can reach as far as a side wall of the trench , characterized in that the spacers are formed by glass fiber rods , in that in the lateral region at least individual glass fiber rods , which can reach as far as the side wall of the trench , extend in the longitudinal direction of the reinforcement cage with an outward-directed convex arcuate shape, and in that the glass fiber rods are fixed in a deflectable manner on the base body . wherein the reinforcement cage is designed at least in a lateral region, which can be allocated to a narrow side of the diaphragm wall panel, with spacers which can reach as far as a side wall of the trench , characterized in that the spacers are formed by glass fiber rods , in that in the lateral region at least individual glass fiber rods , which can reach as far as the side wall of the trench , extend in the longitudinal direction of the reinforcement cage with an outward-directed convex arcuate shape, and in that the glass fiber rods are fixed in a deflectable manner on the base body .