mhurhangee/ep-ind-claims huggingface dataset:
A device configured to apply a strip of paper, characterized in that it comprises: - storage means configured to store a reel of strip of paper; - a reservoir configured to receive a liquid, the reservoir being disposed between the storage means of the reel and the depositing means of the strip; the reservoir comprising at least one humidifying means (24A, 24B) configured to humidify the strip, - depositing means configured to deposit the strip, the depositing means being arranged at one end of the device; - cutting means configured to cut the strip; said cutting means being arranged downstream of the depositing means and configured to be movable between a rest position and a cutting position, the device comprising at least one roller disposed facing the humidifying means (24A, 24B), said roller having a cam profile making it possible to adjust the compression applied to the humidifying means (24A, 24B). - storage means configured to store a reel of strip of paper; - a reservoir configured to receive a liquid, the reservoir being disposed between the storage means of the reel and the depositing means of the strip; the reservoir comprising at least one humidifying means (24A, 24B) configured to humidify the strip, - depositing means configured to deposit the strip, the depositing means being arranged at one end of the device; - cutting means configured to cut the strip; said cutting means being arranged downstream of the depositing means and configured to be movable between a rest position and a cutting position, the device comprising at least one roller disposed facing the humidifying means (24A, 24B), said roller having a cam profile making it possible to adjust the compression applied to the humidifying means (24A, 24B).
A solution for extracting RNA from a biological sample containing RNA and at least DNA, said solution comprising: (a) phenol in an amount of not less than 53% by volume based on the total amount of said solution; (b) a polyol in an amount of 3 to 10% by volume based on the total amount of said solution; (c) a guanidinium salt at a concentration of 0.5 to 2.0 M based on the total amount of said solution; (d) a thiocyanate at a concentration of 0.1 to 0.5 M based on the total amount of said solution, wherein in cases the solution comprises guanidinum thiocyanate, the concentration of guanidinum thiocyanate is included in the concentration of the guanidinum salt, and not included in the concentration of thiocyanate; and (e) a buffer for maintaining the pH of said solution at 4 to 6. (a) phenol in an amount of not less than 53% by volume based on the total amount of said solution; (b) a polyol in an amount of 3 to 10% by volume based on the total amount of said solution; (c) a guanidinium salt at a concentration of 0.5 to 2.0 M based on the total amount of said solution; (d) a thiocyanate at a concentration of 0.1 to 0.5 M based on the total amount of said solution, wherein in cases the solution comprises guanidinum thiocyanate, the concentration of guanidinum thiocyanate is included in the concentration of the guanidinum salt, and not included in the concentration of thiocyanate; and (e) a buffer for maintaining the pH of said solution at 4 to 6.
A lead connector (800, 1402, 1502, 1604, 1704, 2004, 2104 2206, 2302) for an electrical stimulator system, the connector (800, 1402, 1502, 1604, 1704, 2004, 2104 2206, 2302) comprising: a body including a cable interface, the body defining lead ports; a blade affixed to the body, the blade having at least one angled portion; and an insert slidably connected to the body, the insert including a handle and a chassis, the chassis defining a lead channel coaxial with the lead ports and blade channels (2916, 3416) transverse the lead channel to accept the blade (2746, 2926, 3420), wherein the angled portion of the blade (2746, 2926, 3420) provides electrical contact between the cable interface and a lead inserted into the lead channel and extending through at least one of the lead ports, characterized in that the blade (2746, 2926, 3420) includes two side members, each with one of the angled portions, and each of the two side members configured to slide into a different one of the blade channels (2916, 3416). a body including a cable interface, the body defining lead ports; a blade affixed to the body, the blade having at least one angled portion; and an insert slidably connected to the body, the insert including a handle and a chassis, the chassis defining a lead channel coaxial with the lead ports and blade channels (2916, 3416) transverse the lead channel to accept the blade (2746, 2926, 3420), wherein the angled portion of the blade (2746, 2926, 3420) provides electrical contact between the cable interface and a lead inserted into the lead channel and extending through at least one of the lead ports, characterized in that the blade (2746, 2926, 3420) includes two side members, each with one of the angled portions, and each of the two side members configured to slide into a different one of the blade channels (2916, 3416).
Blade unit for a wet razor comprising a support frame, which has an inner face and an outer face oriented towards a shaving plane and in which a plurality of elongate blades are arranged, which respectively have a cutting edge which extends transversely with respect to a shaving direction, wherein: - the support frame has two opposing side portions, which are flat and extend transversely to the cutting edges of the blades; - a plurality of mutually parallel supports run between the side portions, between which an open space respectively remains and which supports each have a head portion and a thereto angled base portion; - one of the blades is respectively mounted to the inside of the head portion of one of the supports, so that the cutting edge lies in the open space and extends in the direction of the outside; - the open spaces respectively run starting at the side portions of the support frame in a limit stop portion at an angle to the cutting edge. - the support frame has two opposing side portions, which are flat and extend transversely to the cutting edges of the blades; - a plurality of mutually parallel supports run between the side portions, between which an open space respectively remains and which supports each have a head portion and a thereto angled base portion; - one of the blades is respectively mounted to the inside of the head portion of one of the supports, so that the cutting edge lies in the open space and extends in the direction of the outside; - the open spaces respectively run starting at the side portions of the support frame in a limit stop portion at an angle to the cutting edge.
A sensor array, comprising: a plurality of sensors electrically connected in series or in parallel, each of the plurality of sensors operable to generate an individual electrical signal; a multiplexing scheme generator operable to generate a multiplexing scheme; a modulation system connected to the multiplexing scheme generator and operable to selectively reverse the polarity of each of the plurality of sensors for each of a plurality of samples based on the multiplexing scheme; a readout device operable to sequentially read a plurality of output signals of the plurality of electrically connected sensors, wherein the number of samples read is greater than or equal to the number of sensors and wherein one or more electrical signals of the plurality of sensors are readout as one electrical signal; and a demultiplexer operable to receive the output electrical signals and to determine the individual electrical signals of each of the plurality of sensors based on the multiplexing scheme. a plurality of sensors electrically connected in series or in parallel, each of the plurality of sensors operable to generate an individual electrical signal; a multiplexing scheme generator operable to generate a multiplexing scheme; a modulation system connected to the multiplexing scheme generator and operable to selectively reverse the polarity of each of the plurality of sensors for each of a plurality of samples based on the multiplexing scheme; a readout device operable to sequentially read a plurality of output signals of the plurality of electrically connected sensors, wherein the number of samples read is greater than or equal to the number of sensors and wherein one or more electrical signals of the plurality of sensors are readout as one electrical signal; and a demultiplexer operable to receive the output electrical signals and to determine the individual electrical signals of each of the plurality of sensors based on the multiplexing scheme.
A time-resolved fluorescence lateral flow assay device comprising: in a lateral flow assay device capable of detecting a traumatic brain injury marker, a sample pad into which a blood sample containing a traumatic brain injury marker is injected, an adsorption pad including a probe which is mixed to the marker when the traumatic brain injury marker moves from the sample pad to form a traumatic brain injury marker complex, and a porous film which fluid-communicates with the adsorption pad and capillary-migrates the traumatic brain injury marker complex from the adsorption pad to a detection line, wherein the probe includes a capture antibody consisting of an antibody labeled with a specific binding material specifically binding to the traumatic brain injury marker and a detector antibody consisting of an antibody labeled with a fluorescent material having a relatively long emission lifetime of 1 microsecond or more, wherein the traumatic brain injury marker is a glial fibrillary acidic protein (GFAP), and any one of S100B, UCH-L1, NSE, NeuN, CNPase, CAM-1, iNOS, MAP-1, MAP-2, SBDP145, SBDP120, III-tubulin, synaptic protein, neuroserpin, internexin, LC3, neurofacin, EAAT, DAT, nestin, cortin-1, CRMP, ICAM-1, ICAM-2, ICAM-5, VCAM-1, NCAM-1, NCAM-L1, NCAM-120, NCAM-140, NL-CAM, AL-CAM, or C-CAM1, wherein biotin is used as the specific binding material, europium is used as the fluorescent material, and a mixture of a mouse-origin antibody and a rabbit-origin antibody is used as an antibody for the detector antibody. in a lateral flow assay device capable of detecting a traumatic brain injury marker, a sample pad into which a blood sample containing a traumatic brain injury marker is injected, an adsorption pad including a probe which is mixed to the marker when the traumatic brain injury marker moves from the sample pad to form a traumatic brain injury marker complex, and a porous film which fluid-communicates with the adsorption pad and capillary-migrates the traumatic brain injury marker complex from the adsorption pad to a detection line, wherein the probe includes a capture antibody consisting of an antibody labeled with a specific binding material specifically binding to the traumatic brain injury marker and a detector antibody consisting of an antibody labeled with a fluorescent material having a relatively long emission lifetime of 1 microsecond or more, wherein the traumatic brain injury marker is a glial fibrillary acidic protein (GFAP), and any one of S100B, UCH-L1, NSE, NeuN, CNPase, CAM-1, iNOS, MAP-1, MAP-2, SBDP145, SBDP120, III-tubulin, synaptic protein, neuroserpin, internexin, LC3, neurofacin, EAAT, DAT, nestin, cortin-1, CRMP, ICAM-1, ICAM-2, ICAM-5, VCAM-1, NCAM-1, NCAM-L1, NCAM-120, NCAM-140, NL-CAM, AL-CAM, or C-CAM1, wherein biotin is used as the specific binding material, europium is used as the fluorescent material, and a mixture of a mouse-origin antibody and a rabbit-origin antibody is used as an antibody for the detector antibody.
Iron for domestic or professional use, comprising a heating sole having a generally flat lower surface, possibly pierced with orifices for the passage of steam produced by the iron or by a central to which this iron is connected, characterized in that the sole has one or more housings or orifices capable of receiving in them, and of allowing partially protruding, one or more rollers mounted in the iron so that their length is substantially parallel to the underside of the sole of the iron, each roller being able to rotate, and at least one of said rollers is shaped to perform, during its rotation corresponding to a forward movement of the iron during an ironing action, an action tending to move the fabric or fabric to be ironed in a direction away from the median axis longitudinal of the sole; this action can result from: - at least one helical groove made in a roller, progressing from a middle zone of this roller towards a longitudinal end of the roller or from a longitudinal end of the roller towards the other longitudinal end of the roller; - bristles or flanges present on the surface of the roller, oriented inclined with respect to the axis of rotation of the roller, from a central zone of the roller towards a longitudinal end of the roller or from one longitudinal end of the roller to the other longitudinal end of the roller; or - a roller having a casing formed by a tubular piece of elastically stretchable material, this casing being engaged and being able to swivel on a curved rod mounted on the iron so that its convexity is turned on the outer side of the sole of the iron and protrudes from the outer face of this sole, so that the casing, during rotation of the roller, undergoes stretching at the level of the middle portion of the roller. - at least one helical groove made in a roller, progressing from a middle zone of this roller towards a longitudinal end of the roller or from a longitudinal end of the roller towards the other longitudinal end of the roller; - bristles or flanges present on the surface of the roller, oriented inclined with respect to the axis of rotation of the roller, from a central zone of the roller towards a longitudinal end of the roller or from one longitudinal end of the roller to the other longitudinal end of the roller; or - a roller having a casing formed by a tubular piece of elastically stretchable material, this casing being engaged and being able to swivel on a curved rod mounted on the iron so that its convexity is turned on the outer side of the sole of the iron and protrudes from the outer face of this sole, so that the casing, during rotation of the roller, undergoes stretching at the level of the middle portion of the roller.
A method of producing a polyhydroxyalkanoate polymer, comprising the steps of: (a) subjecting wastewater comprising organic carbon and organic solids, to (i) microfiltration, thereby producing a permeate and a concentrate; and optionally further subjecting the first permeate to at least one process selected from (ii) ultrafiltration; and (iii) nanofiltration; wherein each of steps (ii) and (iii) produces a further permeate comprising organic carbon and a further concentrate, wherein the permeate of the final of steps (i), (ii) and (iii) is the final permeate; and the input for each of steps (ii) and (iii) is the permeate of the immediately preceding step; (b) subjecting the final permeate to reverse osmosis, thereby producing a final concentrate, wherein said final concentrate comprises organic carbon; (c) subjecting the final concentrate to a biological process comprising microbial aerobic digestion that produces a polyhydroxyalkanoate polymer, thereby producing a biomass comprising the polyhydroxyalkanoate polymer; and (d) isolating the polyhydroxyalkanoate polymer from the biomass. (a) subjecting wastewater comprising organic carbon and organic solids, to (i) microfiltration, thereby producing a permeate and a concentrate; and optionally further subjecting the first permeate to at least one process selected from (ii) ultrafiltration; and (iii) nanofiltration; wherein each of steps (ii) and (iii) produces a further permeate comprising organic carbon and a further concentrate, wherein the permeate of the final of steps (i), (ii) and (iii) is the final permeate; and the input for each of steps (ii) and (iii) is the permeate of the immediately preceding step; (i) microfiltration, thereby producing a permeate and a concentrate; and optionally further subjecting the first permeate to at least one process selected from (ii) ultrafiltration; and (iii) nanofiltration; (b) subjecting the final permeate to reverse osmosis, thereby producing a final concentrate, wherein said final concentrate comprises organic carbon; (c) subjecting the final concentrate to a biological process comprising microbial aerobic digestion that produces a polyhydroxyalkanoate polymer, thereby producing a biomass comprising the polyhydroxyalkanoate polymer; and (d) isolating the polyhydroxyalkanoate polymer from the biomass.
A film for lamination comprising a layer of a first polyester resin and a layer of a second polyester resin laminated on the layer of said first polyester resin, wherein said first polyester resin is a copolymerized polyester resin containing three-functional or more highly functional poly basic acids or polyhydric alcohols in an amount of 0.01 to 0.50 mol% and in which not less than 80 mol% of a dicarboxylic acid component is a terephthalic acid, said dicarboxylic acid component comprising an isophthalic acid in an amount of 10 to 20 mol%, and not less than 80% of a diol component is ethylene glycol, and said second polyester resin is a polyester resin in which not less than 80 mol% of a dicarboxylic acid component is terephthalic acid and not less than 80% of a diol component is ethylene diol, said first polyester resin having a melt tension of not smaller than 50 mN which is larger than a melt tension of said second polyester resin.
A method for activating a secondary cell, SCell (615, 617, 815, 817), by a terminal (601, 801) performing wireless communication in a wireless communication system using carrier aggregation, the method comprising: receiving (631, 641, 831, 841), on a primary cell (613, 813), an activation medium access control, MAC, control element for activating the SCell from a base station (611, 811); activating (633, 643, 833, 843) the SCell based on the activation MAC control element; said method being characterized by: determining whether uplink transmission timing associated with a timing advance group, TAG, to which the SCell belongs is aligned; and performing uplink transmission on the SCell based on the uplink transmission timing in a case that the uplink transmission timing is aligned. receiving (631, 641, 831, 841), on a primary cell (613, 813), an activation medium access control, MAC, control element for activating the SCell from a base station (611, 811); activating (633, 643, 833, 843) the SCell based on the activation MAC control element; said method being characterized by: determining whether uplink transmission timing associated with a timing advance group, TAG, to which the SCell belongs is aligned; and performing uplink transmission on the SCell based on the uplink transmission timing in a case that the uplink transmission timing is aligned. determining whether uplink transmission timing associated with a timing advance group, TAG, to which the SCell belongs is aligned; and performing uplink transmission on the SCell based on the uplink transmission timing in a case that the uplink transmission timing is aligned.
A method of operating a mobile communications network, the method comprising the steps performed by an apparatus (122, 300) of the network: a) in response to a mobile terminal losing a first connection with a first network base station (112a, 112b, 112c) and then making a second connection with a second network base station, determining a network search parameter value for a mobile terminal, wherein the network search parameter value represents a period with which the mobile terminal will perform periodic searches for its home mobile network; b) transmitting the network search parameter value to the mobile terminal; c) periodically re-determining the value of the network search parameter if the mobile terminal is still connected to the second base station; and d) transmitting the network search parameter value determined in step c) to the mobile terminal; wherein: i) the first network base station comprises a femtocell (110a, 110b, 110c) associated with the home mobile network; ii) the second network base station comprises a macrocell associated with a visited mobile network; iii) the area covered by the macrocell comprises a plurality of femtocells (110a, 110b, 110c) located therein; and iv) the value of the network search parameter is determined in accordance with the time for which the mobile terminal has been connected to the visited mobile network and the number of network switches undergone by the mobile terminal in a predetermined period of time. a) in response to a mobile terminal losing a first connection with a first network base station (112a, 112b, 112c) and then making a second connection with a second network base station, determining a network search parameter value for a mobile terminal, wherein the network search parameter value represents a period with which the mobile terminal will perform periodic searches for its home mobile network; b) transmitting the network search parameter value to the mobile terminal; c) periodically re-determining the value of the network search parameter if the mobile terminal is still connected to the second base station; and d) transmitting the network search parameter value determined in step c) to the mobile terminal; i) the first network base station comprises a femtocell (110a, 110b, 110c) associated with the home mobile network; ii) the second network base station comprises a macrocell associated with a visited mobile network; iii) the area covered by the macrocell comprises a plurality of femtocells (110a, 110b, 110c) located therein; and iv) the value of the network search parameter is determined in accordance with the time for which the mobile terminal has been connected to the visited mobile network and the number of network switches undergone by the mobile terminal in a predetermined period of time.
A method for processing data in a terminal including multiple cores, the method comprising: determining whether a condition for a first packet flow among one or more packet flows for data communication is met; if the condition is met, selecting cores to distribute packets of the first packet flow from among the multiple cores; allocating packets received through the first packet flow to the selected cores; and operating the selected cores in parallel to process the packets allocated from the first packet flow, wherein other packet flows other than the first packet flow, which have been allocated to the selected cores, are reallocated to at least one core other than the selected cores, wherein the packets sequentially received are alternately allocated to and processed by the selected cores, wherein the selected cores include a first core (511, 923, 1020) and a second core (512, 933, 1030), and wherein the second core (512, 933, 1030) starts the packet processing after a preset guard time after the first core (511, 923, 1020) starts processing of the immediate prior packet, wherein the guard time is set to be less than a mean packet processing time of the second core (512, 933, 1030). determining whether a condition for a first packet flow among one or more packet flows for data communication is met; if the condition is met, selecting cores to distribute packets of the first packet flow from among the multiple cores; allocating packets received through the first packet flow to the selected cores; and operating the selected cores in parallel to process the packets allocated from the first packet flow, wherein other packet flows other than the first packet flow, which have been allocated to the selected cores, are reallocated to at least one core other than the selected cores, wherein the packets sequentially received are alternately allocated to and processed by the selected cores, wherein the selected cores include a first core (511, 923, 1020) and a second core (512, 933, 1030), and wherein the second core (512, 933, 1030) starts the packet processing after a preset guard time after the first core (511, 923, 1020) starts processing of the immediate prior packet, wherein the guard time is set to be less than a mean packet processing time of the second core (512, 933, 1030).