mhurhangee/ep-ind-claims huggingface dataset:
A method for determining an Energy Saving, ES, compensation cell in a wireless access system, the method comprising: transmitting, by a first base station, BS, to a plurality of second BSs, an ES compensate candidate request message to determine whether each of the plurality of second BSs is capable of transitioning to an ES compensation state; receiving, by the first BS from each of the plurality of second BSs, an ES compensate candidate response message indicating that each of the plurality of second BSs is to transition to the ES compensation state; receiving, by the first BS from each of the plurality of second BSs, an ES candidate cell indicator message including information about third BSs that are to additionally transition to an ES state; and determining, by the first BS, the ES compensation cell among the plurality of second BSs based on each of the ES compensate candidate response messages and the information about the third BSs, wherein the ES compensation cell is one of the plurality of second BSs which has most third BSs that intend to transition to the ES state, and wherein the first BS and the third BSs are on-off cells that are to transition to the ES state, and one of the plurality of the second BSs is the ES compensation cell. transmitting, by a first base station, BS, to a plurality of second BSs, an ES compensate candidate request message to determine whether each of the plurality of second BSs is capable of transitioning to an ES compensation state; receiving, by the first BS from each of the plurality of second BSs, an ES compensate candidate response message indicating that each of the plurality of second BSs is to transition to the ES compensation state; receiving, by the first BS from each of the plurality of second BSs, an ES candidate cell indicator message including information about third BSs that are to additionally transition to an ES state; and determining, by the first BS, the ES compensation cell among the plurality of second BSs based on each of the ES compensate candidate response messages and the information about the third BSs, wherein the ES compensation cell is one of the plurality of second BSs which has most third BSs that intend to transition to the ES state, and wherein the first BS and the third BSs are on-off cells that are to transition to the ES state, and one of the plurality of the second BSs is the ES compensation cell.
A filter configured to separate debris from a flow of fluid, the filter comprising: a housing having a first inner volume; a filter media having a first end, a second end, and a second inner volume between the first and second ends, the filter media coupled to the housing at the first end of the filter media such that the first and second inner volumes together at least partially define a collection container configured to store the debris separated by the filter media from the flow of fluid; and an inlet opening that extends through the housing to provide fluid communication into the collection container such that the flow of fluid with debris can flow into the collection container and a relatively clean flow of fluid exits through the filter media between the first and second ends of the filter media, and characterized in that the filter media is moveable to a collapsed position in which the filter media is collapsed into the first inner volume of the housing, and from the collapsed position to an expanded position, wherein the housing is a first housing, the filter further comprising a second housing, wherein the filter media is coupled to the second housing at the second end of the filter media, wherein the second housing and the first housing enclose the filter media when the filter media is collapsed into the first housing, and wherein, the first inner volume of the first housing, along with the second inner volume of the filter media, and a third inner volume of the second housing together define a collection container that stores debris separated by the filter media. a housing having a first inner volume; a filter media having a first end, a second end, and a second inner volume between the first and second ends, the filter media coupled to the housing at the first end of the filter media such that the first and second inner volumes together at least partially define a collection container configured to store the debris separated by the filter media from the flow of fluid; and an inlet opening that extends through the housing to provide fluid communication into the collection container such that the flow of fluid with debris can flow into the collection container and a relatively clean flow of fluid exits through the filter media between the first and second ends of the filter media, and characterized in that the filter media is moveable to a collapsed position in which the filter media is collapsed into the first inner volume of the housing, and from the collapsed position to an expanded position, wherein the housing is a first housing, the filter further comprising a second housing, wherein the filter media is coupled to the second housing at the second end of the filter media, wherein the second housing and the first housing enclose the filter media when the filter media is collapsed into the first housing, and wherein, the first inner volume of the first housing, along with the second inner volume of the filter media, and a third inner volume of the second housing together define a collection container that stores debris separated by the filter media.
Method for the continuous manufacturing of an LED strip, wherein at least one LED functional strip equipped with a plurality of light-emitting diodes is continuously embedded in a melt consisting of at least one transparent thermoplastic polyurethane elastomer in an extrusion device, wherein the LED functional strip is embedded in a melt consisting of polyurethane, characterized in that the PU melt has a temperature of 120°C to 130°C and the LED functional strip embedded in the PU melt is cooled in a calibration device, solidifying the melt.
A method for manufacturing a substrate for LED mounting, wherein the method comprises the steps (i) to (iv) for providing a wafer: (i) loading into a metal or ceramic tubular body at least one selected from a porous ceramic body, a ceramic powder compact and a ceramic powder, then (ii) impregnating the pore of the at least one selected from a porous ceramic body, a ceramic powder compact and a ceramic powder with a metal, (iii) processing the metal infiltrated ceramic composite in which the pore of a porous ceramic body or a ceramic powder compact are infiltrated with a metal into a cylindrical shape, (iv) then forming a metal layer on a side portion by plating, vapor deposition or sputtering, wherein the thus obtained wafer consisting of a metal infiltrated ceramic composite and a protective layer formed around the metal infiltrated ceramic composite is further processed by (v) cutting out at least one piece from a part of the metal infiltrated ceramic composite constituting the wafer to form a substrate for LED mounting. (i) loading into a metal or ceramic tubular body at least one selected from a porous ceramic body, a ceramic powder compact and a ceramic powder, then (ii) impregnating the pore of the at least one selected from a porous ceramic body, a ceramic powder compact and a ceramic powder with a metal, (iii) processing the metal infiltrated ceramic composite in which the pore of a porous ceramic body or a ceramic powder compact are infiltrated with a metal into a cylindrical shape, (iv) then forming a metal layer on a side portion by plating, vapor deposition or sputtering, (v) cutting out at least one piece from a part of the metal infiltrated ceramic composite constituting the wafer to form a substrate for LED mounting.
Gas compression device, of the type comprising: - a main body (30; 130, 230; 330) suited to define a compression chamber provided with an inlet for said gas, said main body being a single block; - a compression liquid for said gas, suited to be injected in said compression chamber in order to obtain a mixture comprising said liquid and said gas; - compression means (21, 22) arranged in said compression chamber and suited to compress said mixture towards an outlet of said compression chamber; - separation means arranged downstream of said outlet and suited to receive said mixture and separate said liquid from said gas included in said mixture; - a connection channel suited to directly connect said outlet to said separation means; characterized in that said connection channel is completely made in said main body (30; 130,230; 330). - a main body (30; 130, 230; 330) suited to define a compression chamber provided with an inlet for said gas, said main body being a single block; - a compression liquid for said gas, suited to be injected in said compression chamber in order to obtain a mixture comprising said liquid and said gas; - compression means (21, 22) arranged in said compression chamber and suited to compress said mixture towards an outlet of said compression chamber; - separation means arranged downstream of said outlet and suited to receive said mixture and separate said liquid from said gas included in said mixture; - a connection channel suited to directly connect said outlet to said separation means;
A device including: a wireless communication unit to communicate with at least one group of a plurality of wireless communication devices (104; 106; 107) over a wireless communication medium, wherein the wireless communication unit is adapted to reserve the wireless communication medium for a time period, during which the wireless communication unit is adapted to simultaneously transmit two or more different wireless communication transmissions to two or more wireless communication devices of the group, wherein the wireless communication unit is adapted to transmit at least one request-to-send packet to one or more wireless communication devices of the group, the request-to-send packet comprising a duration value corresponding to the time period to be reserved, the wireless communication unit is adapted to transmit the two or more different wireless communication transmissions to the two or more wireless communication devices of the group after receiving two or more clear-to-send packets (222; 224) from the two or more wireless communication devices of the group in response to the request-to-send packet. a wireless communication unit to communicate with at least one group of a plurality of wireless communication devices (104; 106; 107) over a wireless communication medium, wherein the wireless communication unit is adapted to reserve the wireless communication medium for a time period, during which the wireless communication unit is adapted to simultaneously transmit two or more different wireless communication transmissions to two or more wireless communication devices of the group, wherein the wireless communication unit is adapted to transmit at least one request-to-send packet to one or more wireless communication devices of the group, the request-to-send packet comprising a duration value corresponding to the time period to be reserved, the wireless communication unit is adapted to transmit the two or more different wireless communication transmissions to the two or more wireless communication devices of the group after receiving two or more clear-to-send packets (222; 224) from the two or more wireless communication devices of the group in response to the request-to-send packet.
A method for automatic operation of a coker, the method comprising: obtaining a target coke rate indicating a target rate at which to accumulate coke within a coke drum of the coker, wherein the target coke rate is specified as a time rate of change of a coke level within the coke drum and updated during coke production within a drum cycle of the coke drum; using a neural network model to generate a target coker feed rate predicted to result in the coke accumulating within the coke drum at the target coke rate, the target coker feed rate indicating a target rate at which to feed oil into the coke drum; and operating a drum feeder using the target coker feed rate to modulate a feed of oil into the coke drum. obtaining a target coke rate indicating a target rate at which to accumulate coke within a coke drum of the coker, wherein the target coke rate is specified as a time rate of change of a coke level within the coke drum and updated during coke production within a drum cycle of the coke drum; using a neural network model to generate a target coker feed rate predicted to result in the coke accumulating within the coke drum at the target coke rate, the target coker feed rate indicating a target rate at which to feed oil into the coke drum; and operating a drum feeder using the target coker feed rate to modulate a feed of oil into the coke drum.
A method of reducing reactive molecular species in a reaction carried out in a digital fluidics device having one or more electrodes, the method comprising: providing a reaction mixture comprising one or more reagents and an electron acceptor additive; forming a reaction droplet from the reaction mixture; surrounding the reaction droplet with an immiscible fluid; and activating the one or more electrodes to conduct a reaction, wherein the presence of the electron acceptor additive reduces the presence of reactive molecular species in the reaction mixture. providing a reaction mixture comprising one or more reagents and an electron acceptor additive; forming a reaction droplet from the reaction mixture; surrounding the reaction droplet with an immiscible fluid; and activating the one or more electrodes to conduct a reaction, wherein the presence of the electron acceptor additive reduces the presence of reactive molecular species in the reaction mixture.
A temporary tattooing ink comprising: genipin, a solvent, a vegetable oil, and a thickening agent, wherein the thickening agent is xanthan gum, wherein the temporary tattoo ink is in the form of a gel. genipin, a solvent, a vegetable oil, and a thickening agent, wherein the thickening agent is xanthan gum, wherein the temporary tattoo ink is in the form of a gel.
A disposable surgical stapling unit configured for use with an actuation device that has an elongate shaft assembly that defines a shaft axis and operably supports a control rod therein, the disposable surgical stapling unit comprising: a staple cartridge carrier configured to operably support a staple cartridge therein; an end connector configured to be removably coupled to the shaft assembly in a direction which is transverse to the shaft axis, and to be detached therefrom without disassembling the shaft assembly, the end connector having a key member that is configured to engage a corresponding key member on the shaft assembly such that when engaged together, the key members prevent relative axial movement between the disposable surgical stapling unit and the shaft assembly; and a drive member operably supported within the staple cartridge carrier, the drive member comprising: a cutting edge configured to incise tissue; and a proximal end configured for removable attachment to a distal end of the control rod in the transverse direction; wherein the shaft assembly has a collar supported thereon for axial movement between a first position wherein said end connector is retained in engagement with the shaft assembly, and a second position wherein the end connector is detachable from the shaft assembly; wherein the collar has an at least partially threaded aperture, the end connector includes a threaded portion, and said collar is configured to be threadably engaged with the threaded portion on the end connector to retain the disposable surgical stapling unit to the shaft assembly. a staple cartridge carrier configured to operably support a staple cartridge therein; an end connector configured to be removably coupled to the shaft assembly in a direction which is transverse to the shaft axis, and to be detached therefrom without disassembling the shaft assembly, the end connector having a key member that is configured to engage a corresponding key member on the shaft assembly such that when engaged together, the key members prevent relative axial movement between the disposable surgical stapling unit and the shaft assembly; and a drive member operably supported within the staple cartridge carrier, the drive member comprising: a cutting edge configured to incise tissue; and a proximal end configured for removable attachment to a distal end of the control rod in the transverse direction; a cutting edge configured to incise tissue; and a proximal end configured for removable attachment to a distal end of the control rod in the transverse direction; wherein the shaft assembly has a collar supported thereon for axial movement between a first position wherein said end connector is retained in engagement with the shaft assembly, and a second position wherein the end connector is detachable from the shaft assembly; wherein the collar has an at least partially threaded aperture, the end connector includes a threaded portion, and said collar is configured to be threadably engaged with the threaded portion on the end connector to retain the disposable surgical stapling unit to the shaft assembly.
A method for cleaning copper-smelting molten slag, comprising the following steps: in a cleaning device, mixing copper-smelting molten slag, a reducing agent and pressurized inert gas to perform cleaning thereby to obtain cleaned slag, wherein the inert gas has a pressure of 100 kPa to 800 kPa, in copper-smelting molten slag, the copper in oxidized state is in an amount of 10% to 20% by weight, the reducing agent is copper concentrate containing FeS and Cu 2 S, and a ratio by mass of sulfur content in the reducing agent to oxygen content in the copper-smelting molten slag is (0.6-1.5): 1. in a cleaning device, mixing copper-smelting molten slag, a reducing agent and pressurized inert gas to perform cleaning thereby to obtain cleaned slag, wherein the inert gas has a pressure of 100 kPa to 800 kPa, in copper-smelting molten slag, the copper in oxidized state is in an amount of 10% to 20% by weight, the reducing agent is copper concentrate containing FeS and Cu 2 S, and a ratio by mass of sulfur content in the reducing agent to oxygen content in the copper-smelting molten slag is (0.6-1.5): 1.
A shaft seal arrangement for a rotating turbomachine shaft having a rotation axis, the shaft seal arrangement comprising: a rotor part that rotates during operation; a stationary part; a dry gas seal comprising: at least one rotary element having a rotary sealing surface and arranged for rotation with the rotor part; at least one stationary element in a fixed relationship with the stationary part and having a stationary sealing surface, the rotary sealing surface and the stationary sealing surface being resiliently biased one against the other; a dry gas delivery path (55, 57, 59) configured for delivering dry sealing gas between the stationary sealing surface and the rotary sealing surface; at least one cooling fluid volume (65, 67, 70, 83) arranged for receiving a cooling fluid and in heat exchange relationship with the dry gas seal; characterized in that the shaft seal arrangement further comprises: a venting arrangement configured for collectively venting exhaust cooling fluid and dry sealing gas from the shaft seal arrangement. a rotor part that rotates during operation; a stationary part; a dry gas seal comprising: at least one rotary element having a rotary sealing surface and arranged for rotation with the rotor part; at least one stationary element in a fixed relationship with the stationary part and having a stationary sealing surface, the rotary sealing surface and the stationary sealing surface being resiliently biased one against the other; a dry gas delivery path (55, 57, 59) configured for delivering dry sealing gas between the stationary sealing surface and the rotary sealing surface; at least one cooling fluid volume (65, 67, 70, 83) arranged for receiving a cooling fluid and in heat exchange relationship with the dry gas seal; characterized in that the shaft seal arrangement further comprises: a venting arrangement configured for collectively venting exhaust cooling fluid and dry sealing gas from the shaft seal arrangement.
A mutant Msp monomer comprising a variant of the sequence shown in SEQ ID NO: 2, wherein in the variant: (a) 2, 4, 6, 8 or 10 consecutive amino acids at positions 72 to 82 of SEQ ID NO: 2 have been deleted and the amino acids from positions 72 to 82 remaining after deletion comprise 3, 5, 7 or 9 consecutive amino acids which alternate between hydrophobic and hydrophilic; and (b) 2, 4, 6, 8 or 10 consecutive amino acids at positions 111 to 121 of SEQ ID NO: 2 have been deleted and the amino acids from positions 111 to 121 remaining after deletion comprise 3, 5, 7 or 9 consecutive amino acids which alternate between hydrophobic and hydrophilic, wherein the same number of amino acids have been deleted in (a) and (b) and further wherein the monomer retains the ability to form a pore and comprises one or more modifications which decrease the net negative charge of the inward facing amino acids in the cap forming region and/or the barrel forming region of the monomer.
Circuit assembly for a motor vehicle transmission, with: - a shifting clutch assembly, by means of which a gear stage of the motor vehicle transmission can be engaged and disengaged, - an electrically actuable actuator assembly which is coupled via a first force transmission device to the shifting clutch assembly, - a parking lock assembly which is coupled via a second force transmission device to the actuator assembly, it being possible for the actuator assembly to be set into a parking lock position, in which the parking lock assembly can be actuated, the actuator assembly being configured to engage the gear stage via the first force transmission device on the way into the parking lock position and/or in the parking lock position, characterized in that the first force transmission device has a decoupling device which is configured to set the actuator assembly into the parking lock position even if the shifting clutch assembly locks and the engagement of a gear stage is not possible, the decoupling device being configured in such a way that it can be activated by way of a second force (F 2) which exceeds a first force (F 1) which is normally required to engage a gear stage or to engage the parking lock assembly, an electric current at the electrically actuable actuator assembly being increased, to be precise to a value (i 2) which corresponds to the second force (F 2) if locking of the shifting clutch assembly is detected. - a shifting clutch assembly, by means of which a gear stage of the motor vehicle transmission can be engaged and disengaged, - an electrically actuable actuator assembly which is coupled via a first force transmission device to the shifting clutch assembly, - a parking lock assembly which is coupled via a second force transmission device to the actuator assembly, it being possible for the actuator assembly to be set into a parking lock position, in which the parking lock assembly can be actuated, the actuator assembly being configured to engage the gear stage via the first force transmission device on the way into the parking lock position and/or in the parking lock position, characterized in that the first force transmission device has a decoupling device which is configured to set the actuator assembly into the parking lock position even if the shifting clutch assembly locks and the engagement of a gear stage is not possible, the decoupling device being configured in such a way that it can be activated by way of a second force (F 2) which exceeds a first force (F 1) which is normally required to engage a gear stage or to engage the parking lock assembly, an electric current at the electrically actuable actuator assembly being increased, to be precise to a value (i 2) which corresponds to the second force (F 2) if locking of the shifting clutch assembly is detected.