mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission method performed by a network device, wherein the method comprises: transmitting to a terminal a plurality of pieces of resource information for configured grant scheduling or random access; receiving data from the terminal according to at least one of the plurality of pieces of resource information, wherein the at least one of the plurality of pieces of resource information is selected by a terminal according to a channel quality or a service characteristic of the terminal for sending data to the network device, wherein the plurality of pieces of resource information is configured for a same configured grant scheduling or a same random access. transmitting to a terminal a plurality of pieces of resource information for configured grant scheduling or random access; receiving data from the terminal according to at least one of the plurality of pieces of resource information, wherein the at least one of the plurality of pieces of resource information is selected by a terminal according to a channel quality or a service characteristic of the terminal for sending data to the network device, wherein the plurality of pieces of resource information is configured for a same configured grant scheduling or a same random access.
A method of operating a fire suppression system having a pneumatically driven pump connected to a conduit that is connected to a nozzle , the conduit and the nozzle establishing a discharge path, the method comprising the steps of: driving the pump with pressurized gas from a gas source to cause the pump to deliver a pressurized fire suppression fluid from a source to the nozzle , wherein the fire suppression fluid is water; providing gas from the gas source to the discharge path to achieve a bubbly fluid mixture of liquid and gas bubbles in the discharge path; and achieving a desired effervescent discharge of the fire suppression fluid from the nozzle as gas bubbles of the bubbly fluid mixture of liquid and gas bubbles burst upon exiting the nozzle , thereby causing the fire suppression fluid to break up into droplets establishing a mist discharge from the nozzle . driving the pump with pressurized gas from a gas source to cause the pump to deliver a pressurized fire suppression fluid from a source to the nozzle , wherein the fire suppression fluid is water; providing gas from the gas source to the discharge path to achieve a bubbly fluid mixture of liquid and gas bubbles in the discharge path; and achieving a desired effervescent discharge of the fire suppression fluid from the nozzle as gas bubbles of the bubbly fluid mixture of liquid and gas bubbles burst upon exiting the nozzle , thereby causing the fire suppression fluid to break up into droplets establishing a mist discharge from the nozzle .
A method by a transmitting user equipment, UE, for controlling radio resources used for a data transmission, the method comprising: determining an allocated bandwidth; determining a transmission bandwidth for the data transmission; and transmitting towards a receiving UE a scheduling assignment that indicates a number or a set of subchannels within the allocated bandwidth; wherein determining the transmission bandwidth comprises determining a largest number of resource blocks for a supported Discrete Fourier Transform size such that the allocated bandwidth is greater or equal to the transmission bandwidth. determining an allocated bandwidth; determining a transmission bandwidth for the data transmission; and transmitting towards a receiving UE a scheduling assignment that indicates a number or a set of subchannels within the allocated bandwidth;
Non-therapeutic use of a filtering medium for selective adsorption of blood components, the filtering medium containing a cellulose acylate, wherein a glass transition temperature of the filtering medium is 126°C or higher, an average through-hole diameter is 0.1 to 50 μm, and a specific surface area is 1.0 to 100 m 2 /g, wherein the glass transition temperature and the average through-hole diameter are determined as defined in the description; and the specific surface area is measured by the Brunauer-Emmett-Teller method by nitrogen adsorption. a glass transition temperature of the filtering medium is 126°C or higher, an average through-hole diameter is 0.1 to 50 μm, and a specific surface area is 1.0 to 100 m 2 /g, wherein the glass transition temperature and the average through-hole diameter are determined as defined in the description; and the specific surface area is measured by the Brunauer-Emmett-Teller method by nitrogen adsorption.
An electrochemical capacitor, comprising: a plurality of electrode assemblies , each including a positive electrode configured in a rolled sheet form and having both surfaces coated with an active material layer, a negative electrode configured in a rolled sheet form to face the positive electrode and having both surfaces coated with an active material layer, and a separator interposed and rolled between the positive electrode and the negative electrode ; a positive electrode lead wire electrically connected to the positive electrode of each of the plurality of electrode assemblies ; and a negative electrode lead wire electrically connected to the negative electrode of each of the plurality of electrode assemblies , wherein the plurality of electrode assemblies are stacked in one direction; characterized in that the positive electrodes , the negative electrodes and the separators of neighboring electrode assemblies are rolled to have different numbers of winds. a plurality of electrode assemblies , each including a positive electrode configured in a rolled sheet form and having both surfaces coated with an active material layer, a negative electrode configured in a rolled sheet form to face the positive electrode and having both surfaces coated with an active material layer, and a separator interposed and rolled between the positive electrode and the negative electrode ; a positive electrode lead wire electrically connected to the positive electrode of each of the plurality of electrode assemblies ; and a negative electrode lead wire electrically connected to the negative electrode of each of the plurality of electrode assemblies , wherein the plurality of electrode assemblies are stacked in one direction; characterized in that the positive electrodes , the negative electrodes and the separators of neighboring electrode assemblies are rolled to have different numbers of winds.
A sheet handling apparatus comprising: a transport unit configured to transport a sheet along a transport path; a recognition unit configured to recognize a type of the sheet transported by the transport unit ; a memory ; and a control unit , characterized in that the sheet handling apparatus further comprises a detection unit configured to detect the sheet transported by the transport unit , based on a setting; wherein the memory is configured to previously store a plurality of settings of the detection unit by type of the sheet; and the control unit is configured to change the setting of the detection unit based on the type of the sheet transported by the transport unit , wherein the control unit is configured to read from the memory the previously stored setting corresponding to the type of the sheet recognized by the recognition unit and change the setting of the detection unit based on the read setting. a transport unit configured to transport a sheet along a transport path; a recognition unit configured to recognize a type of the sheet transported by the transport unit ; a memory ; and a control unit , characterized in that the sheet handling apparatus further comprises a detection unit configured to detect the sheet transported by the transport unit , based on a setting; wherein the memory is configured to previously store a plurality of settings of the detection unit by type of the sheet; and the control unit is configured to change the setting of the detection unit based on the type of the sheet transported by the transport unit , wherein the control unit is configured to read from the memory the previously stored setting corresponding to the type of the sheet recognized by the recognition unit and change the setting of the detection unit based on the read setting.
Hot-air cooking appliance which comprises a heating block arranged in the upper part and a base arranged in the lower part, said heating block comprising a heating device for heating air and a circulation device for displacing the heated air, and said base comprising a housing above which the heating block is removably mounted to define a first functional configuration of the cooking appliance in which said housing is suitable for receiving a cooking container provided with an upper opening designed to be disposed facing the heating device , characterised in that the heating block is configured so as to be placed stably in an inverted position over the base and comprises support means suitable for receiving a cooking container by disposing a bottom of said container facing the heating device , such that the cooking appliance has a second functional configuration allowing food to be cooked in a container positioned on the heating block inverted over the base and heating the bottom of said container.
A method for use in a network node , the method comprising: sending a control information message to at least one wireless device that is in idle mode, the message comprising a mapping that maps a quasi co-location, QCL, assumption to a multicast transmission or multicast channel, wherein the multicast transmission or multicast channel is associated with a temporary multicast group indicator, TMGI, and the mapping maps the QCL assumption to the TMGI.
Precipitated silica, characterized in that it has: - a BET specific surface of between 45 and 550 m 2 /g, in particular between 70 and 370 m 2 /g, especially between 80 and 350 m 2 /g, - a CTAB specific surface of between 40 and 525 m 2 /g, in particular between 70 and 350 m 2 /g, especially between 80 and 310 m 2 /g, - a content (C) of polycarboxylic acid + corresponding carboxylate, expressed as total carbon, of at least 0.15% by weight, in particular of at least 0.20% by weight, - a width Ld ((d84 - d16)/d50) with a size distribution of objects, measured by XDC particle size analysis after deagglomeration with ultrasound, of at least 0.91 and a distribution of the pore volume such that the ratio V (d5 - d50) /V (d5 - d100) is at least 0.65, in particular at least 0.66. - a BET specific surface of between 45 and 550 m 2 /g, in particular between 70 and 370 m 2 /g, especially between 80 and 350 m 2 /g, - a CTAB specific surface of between 40 and 525 m 2 /g, in particular between 70 and 350 m 2 /g, especially between 80 and 310 m 2 /g, - a content (C) of polycarboxylic acid + corresponding carboxylate, expressed as total carbon, of at least 0.15% by weight, in particular of at least 0.20% by weight, - a width Ld ((d84 - d16)/d50) with a size distribution of objects, measured by XDC particle size analysis after deagglomeration with ultrasound, of at least 0.91 and a distribution of the pore volume such that the ratio V (d5 - d50) /V (d5 - d100) is at least 0.65, in particular at least 0.66.
Fuel cell comprising a stack comprising a plurality of cells aligned along a stack axis (X) and a plurality of fluid flow shafts in the stack , two end plates placed at the ends of the stack along the stack axis (X), and a plurality of traction members connecting the end plates to each other in order to compress the stack , fuel cell characterized in that at least one end plate comprises: • a main device comprising a main body comprising at least one access opening aligned with a flow shaft and at least one main traction member (T1) configured to apply a main compression to the main body so as to urge the main body against the stack at the flow shaft of the stack and • an auxiliary device comprising an auxiliary body and at least one auxiliary traction member (T2) configured to apply an auxiliary compression to the auxiliary body so as to urge the auxiliary body against the stack , the auxiliary compression being applied at a distance from the flow shaft of the stack , the main device being mounted removably with respect to the auxiliary device , the main device being configured to be removed when the auxiliary traction member (T2) applies an auxiliary compression to the auxiliary body . • a main device comprising a main body comprising at least one access opening aligned with a flow shaft and at least one main traction member (T1) configured to apply a main compression to the main body so as to urge the main body against the stack at the flow shaft of the stack and • an auxiliary device comprising an auxiliary body and at least one auxiliary traction member (T2) configured to apply an auxiliary compression to the auxiliary body so as to urge the auxiliary body against the stack , the auxiliary compression being applied at a distance from the flow shaft of the stack , the main device being mounted removably with respect to the auxiliary device , the main device being configured to be removed when the auxiliary traction member (T2) applies an auxiliary compression to the auxiliary body .
A method of distributing a plurality of media content services (S1-S5) across a distribution network comprising: dividing each of the plurality of media content services (S1-S5) into segments; and transmitting the segments of each of the plurality of media content services (S1-S5) as a sequence of bursts , wherein there is a window period between successive bursts during which media content is not transmitted, wherein each of the media content services (S1-S5) has a respective bit rate and the transmitting comprises transmitting each of the segments at a higher bit rate to create the window periods between successive bursts , and wherein starts of bursts of the plurality of media content services (S1-S5) are staggered in time with respect to one another. dividing each of the plurality of media content services (S1-S5) into segments; and transmitting the segments of each of the plurality of media content services (S1-S5) as a sequence of bursts , wherein there is a window period between successive bursts during which media content is not transmitted,
An information processing device comprising: a transfer time estimating section configured to estimate a time in a series of time frames which includes (i) a first time frame during which a relatively large amount of waste is brought into a waste pit and (ii) a second time frame during which a smaller amount of waste is brought into the waste pit than during the first time frame, the estimated time being required for a transfer operation to cause a crane to transfer waste that has been brought into the waste pit; and a scheduler section configured to divide, between a mixing operation and the transfer operation, an operation time, during which the mixing operation or the transfer operation is allowed to be carried out with respect to waste by means of the crane in the series of time frames, in a manner which satisfies the following requirements: a requirement that the transfer operation is carried out for at least the time that has been estimated by the transfer time estimating section; and a requirement that the mixing operation is carried out for a time equal to or longer than a predetermined time in the first time frame during which a relatively large amount of waste is brought into the waste pit. a transfer time estimating section configured to estimate a time in a series of time frames which includes (i) a first time frame during which a relatively large amount of waste is brought into a waste pit and (ii) a second time frame during which a smaller amount of waste is brought into the waste pit than during the first time frame, the estimated time being required for a transfer operation to cause a crane to transfer waste that has been brought into the waste pit; and a scheduler section configured to divide, between a mixing operation and the transfer operation, an operation time, during which the mixing operation or the transfer operation is allowed to be carried out with respect to waste by means of the crane in the series of time frames, in a manner which satisfies the following requirements: a requirement that the transfer operation is carried out for at least the time that has been estimated by the transfer time estimating section; and a requirement that the mixing operation is carried out for a time equal to or longer than a predetermined time in the first time frame during which a relatively large amount of waste is brought into the waste pit. a requirement that the transfer operation is carried out for at least the time that has been estimated by the transfer time estimating section; and a requirement that the mixing operation is carried out for a time equal to or longer than a predetermined time in the first time frame during which a relatively large amount of waste is brought into the waste pit.
A dental storage box comprising a protective liquid and a cleaning liquid, the dental storage box further comprising a 3-dimensional hollow body whose at least one surface is open and at least one outer cover which closes the open surface of said body in a manner providing sealing, the protective liquid is provided in the body in order to preserve a tooth removed from the place thereof as a result of a trauma by at least partially increasing the vitality duration of the tooth, the dental storage box further comprising at least one separator provided inside the body and which separates the protective liquid and the at least one cleaning liquid placed into the body in a manner providing sealing; wherein a carrier permitting partial liquid passage through the surfaces thereof is provided in order to provide the tooth, placed into said carrier , to be immersed into at least one of the protective liquid and the cleaning liquid -and said carrier is in the form of a beaker whose body is perforated.
A structural steel having excellent brittle crack propagation resistance, the structural steel consisting of, by wt%, 0.02 to 0.12% of C, 0.01 to 0.8% of Si, 1.7 to 2.5% of Mn, 0.005 to 0.5% of Al, and optionally further including, by wt%, one or two or more of 0.02% or less of P, 0.01% or less of S, 0.005 to 0.10% of Nb, 0.001% or less of B, 0.005 to 0.1% of Ti, 0.0015 to 0.015% of N, 0.05 to 1.0% of Cr, 0.01 to 1.0% of Mo, 0.01 to 2.0% of Ni, 0.01 to 1.0% of Cu, 0.005 to 0.3% of V, and 0.006% or less of Ca and the balance of Fe and inevitable impurities, wherein a surface part and a center part thereof are microstructurally distinguished in a thickness direction, wherein the surface part includes tempered bainite as a basic structure, fresh martensite as a second structure, and austenite as a residual structure, the basic structure and the second structure being included in a volume fraction of 95% or greater in the surface part, wherein the center part includes, by volume fraction, 95% or more of acicular ferrite, wherein the steel has 2% or greater of a Mn equivalent represented by Mn eq of Equation 1 below: Mn eq = Mn + 1.5 Cr + 3 Mo + Si / 3 + Ni / 3 + Cu / 2 + 124 B wherein [Mn], [Cr], [Mo], [Si], [Ni], [Cu] and [B] refer to contents of Mn, Cr, Mo, Si, Ni, Cu, and B, respectively, and are 0 when the corresponding element is not included, wherein the surface part is divided into a first surface part and a second surface part, the center part being located between the first surface part and the second surface part and the first surface part and the second surface part each having a thickness of 3 to 10% of a thickness of the steel, wherein a tensile strength of the steel is 570MPa or greater, and a Kca value of the surface part based on -10°C in a temperature gradient ESSO test is 6000N/mm 3/2 or greater, and wherein a high angle grain boundary fraction of the surface part is 45% or greater.
A system for machining materials by means of laser beam, comprising: a deflection device for deflecting the laser beam ; and a wobble device configured to superimpose a wobble movement of said laser beam with a wobble figure and a wobble frequency onto a feed movement of said laser beam corresponding to a machining path by controlling said deflection device , characterized in that said wobble device is configured, for carrying out the wobble movement, to control said deflection device according to a compensated wobble movement, wherein control values for a deflection of said laser beam along the wobble figure are adapted and stored depending on the wobble frequency, and are used for controlling said deflection device according to the compensated wobble moment, and/or wherein a path speed of the wobble movement that varies along the wobble figure, is adapted and stored depending on a position of said laser beam in the wobble figure and on the wobble frequency, and is used for controlling the deflection device (40 according to the compensated wobble movement, and in that controlling said deflection device according to the compensated wobble movement comprises at least one of: compensating for a reduction in amplitude of at least a portion of the wobble figure depending on the wobble frequency; and compensating for a shape deviation of at least a portion of the wobble figure depending on the wobble frequency. a deflection device for deflecting the laser beam ; and a wobble device configured to superimpose a wobble movement of said laser beam with a wobble figure and a wobble frequency onto a feed movement of said laser beam corresponding to a machining path by controlling said deflection device , characterized in that said wobble device is configured, for carrying out the wobble movement, to control said deflection device according to a compensated wobble movement, wherein control values for a deflection of said laser beam along the wobble figure are adapted and stored depending on the wobble frequency, and are used for controlling said deflection device according to the compensated wobble moment, and/or wherein a path speed of the wobble movement that varies along the wobble figure, is adapted and stored depending on a position of said laser beam in the wobble figure and on the wobble frequency, and is used for controlling the deflection device (40 according to the compensated wobble movement, and in that controlling said deflection device according to the compensated wobble movement comprises at least one of: compensating for a reduction in amplitude of at least a portion of the wobble figure depending on the wobble frequency; and compensating for a shape deviation of at least a portion of the wobble figure depending on the wobble frequency.
A method for producing a heterologous protein comprising: culturing a coryneform bacterium having a genetic construct for secretory expression of the heterologous protein; and collecting the heterologous protein produced by secretory production, wherein the coryneform bacterium has been modified so that the number of molecules of a RegX3 protein per cell is reduced as compared with a non-modified strain, wherein the genetic construct comprises, in the direction from 5' to 3', a promoter sequence that functions in the coryneform bacterium, a nucleic acid sequence encoding a signal peptide that functions in the coryneform bacterium, and a nucleic acid sequence encoding the heterologous protein, and wherein the heterologous protein is expressed as a fusion protein with the signal peptide. culturing a coryneform bacterium having a genetic construct for secretory expression of the heterologous protein; and collecting the heterologous protein produced by secretory production, wherein the coryneform bacterium has been modified so that the number of molecules of a RegX3 protein per cell is reduced as compared with a non-modified strain, wherein the genetic construct comprises, in the direction from 5' to 3', a promoter sequence that functions in the coryneform bacterium, a nucleic acid sequence encoding a signal peptide that functions in the coryneform bacterium, and a nucleic acid sequence encoding the heterologous protein, and wherein the heterologous protein is expressed as a fusion protein with the signal peptide.