mhurhangee/ep-ind-claims huggingface dataset:
A method of uplink mobile communication at a user equipment, UE, comprising: compressing two consecutive voice packets having a first voice packet transmission time interval, TTI, into two compressed voice packets having a second voice packet TTI; characterized by compressing signaling data corresponding to a first dedicated control channel, DCCH, TTI into compressed signaling data having a second DCCH TTI; multiplexing the two compressed voice packets and the compressed signaling data to form a multiplexed packet; splitting the multiplexed packet into a first subpacket and a second subpacket; transmitting the first subpacket during a first subpacket interval having a subpacket TTI; and transmitting the second subpacket during a second subpacket interval subsequent to the first subpacket interval, wherein the second subpacket interval has the subpacket TTI. compressing two consecutive voice packets having a first voice packet transmission time interval, TTI, into two compressed voice packets having a second voice packet TTI; characterized by compressing signaling data corresponding to a first dedicated control channel, DCCH, TTI into compressed signaling data having a second DCCH TTI; multiplexing the two compressed voice packets and the compressed signaling data to form a multiplexed packet; splitting the multiplexed packet into a first subpacket and a second subpacket; transmitting the first subpacket during a first subpacket interval having a subpacket TTI; and transmitting the second subpacket during a second subpacket interval subsequent to the first subpacket interval, wherein the second subpacket interval has the subpacket TTI.
A method for controlling one or more parameters of a flow cytometer type measurement system, comprising the steps of: - measuring a time in which a microsphere travels from a first detection window of the flow cytometer type measurement system to a second detection window of the measurement system; and - altering an applied pressure of the measurement system such that the time is substantially constants, characterized in that said measuring comprises measuring light scattered by the microsphere at an angle of 90° from the direction of illumination in the first and second detection windows with one detector. - measuring a time in which a microsphere travels from a first detection window of the flow cytometer type measurement system to a second detection window of the measurement system; and - altering an applied pressure of the measurement system such that the time is substantially constants,
A motor operated valve (1, 201, 301) comprising: an assembly of a body (5, 205, 305) including a valve section therein, and a motor unit (3, 203, 303) including a stator coated with molding resin, wherein the motor unit (3, 203, 303) includes: a case (76, 276) integrated with the stator by the molding resin, wherein a number of terminals (130, 132, 134, 136) are molded in the case (76, 276), wherein one of the terminals (130, 132, 134, 136) is a ground terminal and a circuit board provided in the case (76, 276), the case (76, 276) has an insertion hole, the insertion hole being an insertion trace of a mold component in the molding resin, and a conductive member (92, 192) is inserted in the insertion hole and electrically connected with a ground line of the circuit board, the ground terminal is electrically connected to the conductive member (92, 192) through the ground line formed on the circuit board, wherein the conductive member (92, 192) has one end connected with the ground line and the other end connected with a core of the stator, and wherein a face of the circuit board on which the ground line is formed and one end face of the core face each other in an axial direction of the core, and the conductive member (92, 192) is arranged therebetween. an assembly of a body (5, 205, 305) including a valve section therein, and a motor unit (3, 203, 303) including a stator coated with molding resin, wherein the motor unit (3, 203, 303) includes: a case (76, 276) integrated with the stator by the molding resin, wherein a number of terminals (130, 132, 134, 136) are molded in the case (76, 276), wherein one of the terminals (130, 132, 134, 136) is a ground terminal and a circuit board provided in the case (76, 276), a case (76, 276) integrated with the stator by the molding resin, wherein a number of terminals (130, 132, 134, 136) are molded in the case (76, 276), wherein one of the terminals (130, 132, 134, 136) is a ground terminal and a circuit board provided in the case (76, 276), the case (76, 276) has an insertion hole, the insertion hole being an insertion trace of a mold component in the molding resin, and a conductive member (92, 192) is inserted in the insertion hole and electrically connected with a ground line of the circuit board, the ground terminal is electrically connected to the conductive member (92, 192) through the ground line formed on the circuit board, wherein the conductive member (92, 192) has one end connected with the ground line and the other end connected with a core of the stator, and wherein a face of the circuit board on which the ground line is formed and one end face of the core face each other in an axial direction of the core, and the conductive member (92, 192) is arranged therebetween.
A fuel cell system which is configured (i) to execute a stop process of stopping an output from a fuel cell when a required power generation amount for the fuel cell is smaller than a predetermined power generation amount and (ii) to supply oxidant during a stop process period, wherein: - fuel gas is intermittently supplied during the stop process period to a fuel electrode comprising a carbon carrying platinum as an electrode catalyst and - the stop process is further characterized in - that the fuel gas is intermittently supplied to the fuel electrode at a basic supply interval which is set in advance during the stop process and - that the basic supply interval is set so as to avoid having carbon dioxide being generated by the degradation of the carbon carrying platinum, thus avoiding an elution of the platinum carried on the carbon during the stop process period. (i) to execute a stop process of stopping an output from a fuel cell when a required power generation amount for the fuel cell is smaller than a predetermined power generation amount and (ii) to supply oxidant during a stop process period, - fuel gas is intermittently supplied during the stop process period to a fuel electrode comprising a carbon carrying platinum as an electrode catalyst and - the stop process is further characterized in - that the fuel gas is intermittently supplied to the fuel electrode at a basic supply interval which is set in advance during the stop process and - that the basic supply interval is set so as to avoid having carbon dioxide being generated by the degradation of the carbon carrying platinum, thus avoiding an elution of the platinum carried on the carbon during the stop process period. - that the fuel gas is intermittently supplied to the fuel electrode at a basic supply interval which is set in advance during the stop process and - that the basic supply interval is set so as to avoid having carbon dioxide being generated by the degradation of the carbon carrying platinum, thus avoiding an elution of the platinum carried on the carbon during the stop process period.
An ultracapacitor comprising: a first electrode that comprises a first current collector electrically coupled to a first carbonaceous coating comprising activated carbon, a water-insoluble organic binder, and a water-soluble organic binder; a second electrode that comprises a second current collector electrically coupled to a second carbonaceous coating comprising activated carbon, a water-insoluble organic binder, and a water-soluble organic binder, wherein the first current collector and the second current collector each contain a substrate that includes a conductive metal, wherein a plurality of fiber-like whiskers project outwardly from the substrate of the first current collector, the substrate of the second current collector, or both; a separator positioned between the first electrode and the second electrode; a nonaqueous electrolyte that is in ionic contact with the first electrode and the second electrode; and a housing within which the first electrode, the second electrode, the separator, and the electrolyte are retained, wherein the housing contains a metal container, wherein the binders constitute 0.5 to 5 wt.-% of the total weight of a carbonaceous coating. a first electrode that comprises a first current collector electrically coupled to a first carbonaceous coating comprising activated carbon, a water-insoluble organic binder, and a water-soluble organic binder; a second electrode that comprises a second current collector electrically coupled to a second carbonaceous coating comprising activated carbon, a water-insoluble organic binder, and a water-soluble organic binder, wherein the first current collector and the second current collector each contain a substrate that includes a conductive metal, wherein a plurality of fiber-like whiskers project outwardly from the substrate of the first current collector, the substrate of the second current collector, or both; a separator positioned between the first electrode and the second electrode; a nonaqueous electrolyte that is in ionic contact with the first electrode and the second electrode; and a housing within which the first electrode, the second electrode, the separator, and the electrolyte are retained, wherein the housing contains a metal container, wherein the binders constitute 0.5 to 5 wt.-% of the total weight of a carbonaceous coating.
A curable jettable fluid for making a flexographic printing master characterized in that the jettable fluid comprises no plasticizer and has a viscosity measured at 45°C of less than 15 mPa.s and comprises at least 50 wt.% relative to the total weight of the fluid of a mixture of a cyclic monofunctional acrylate monomer, a monofunctional urethane acrylate oligomer and a difunctional (meth)acrylate monomer.
An interventional device, comprising: an elongated member having a wall and an interior lumen, the elongated member including a plurality of fenestrations extending through the wall and exposing the lumen, the plurality of fenestrations defining a plurality of axially extending beams and a plurality of circumferentially extending rings arranged in an imperfect ramp pattern, wherein no set of three successive segments or beam pairs within the imperfect ramp pattern are spaced according to the same rotational offset, wherein the imperfect ramp pattern includes an imperfect rotational offset from one beam pair to the next, the imperfect rotational offset being equal to a constant value ± a variable modifying value, and wherein the variable modifying value ranges from 2.5 to 30 degrees. an elongated member having a wall and an interior lumen, the elongated member including a plurality of fenestrations extending through the wall and exposing the lumen, the plurality of fenestrations defining a plurality of axially extending beams and a plurality of circumferentially extending rings arranged in an imperfect ramp pattern, wherein no set of three successive segments or beam pairs within the imperfect ramp pattern are spaced according to the same rotational offset, wherein the imperfect ramp pattern includes an imperfect rotational offset from one beam pair to the next, the imperfect rotational offset being equal to a constant value ± a variable modifying value, and wherein the variable modifying value ranges from 2.5 to 30 degrees.
A method for producing an aqueous dispersion comprising an ionomer composition, the method comprising (a) providing a solid ionomer composition comprising a parent acid copolymer that comprises copolymerized units of ethylene, 18 to 30 weight % of copolymerized units of acrylic acid or methacrylic acid, based on the total weight of the parent acid copolymer, the acid copolymer having a melt flow rate from 200 to 1000 g/10 min., measured according to ASTM D1238 at 190°C with a 2160 g load, wherein 50% to 70% of the carboxylic acid groups of the copolymer, based on the total carboxylic acid content of the parent acid copolymer as calculated for the non-neutralized parent acid copolymer, are neutralized to carboxylic acid salts comprising sodium cations; (b) mixing the solid ionomer composition with water heated to a temperature from 80 to 90 °C under low shear conditions to provide a heated aqueous ionomer dispersion; and (c) optionally cooling the heated aqueous ionomer dispersion to a temperature of 20 to 30 °C, wherein the ionomer remains dispersed in the liquid phase. (a) providing a solid ionomer composition comprising a parent acid copolymer that comprises copolymerized units of ethylene, 18 to 30 weight % of copolymerized units of acrylic acid or methacrylic acid, based on the total weight of the parent acid copolymer, the acid copolymer having a melt flow rate from 200 to 1000 g/10 min., measured according to ASTM D1238 at 190°C with a 2160 g load, wherein 50% to 70% of the carboxylic acid groups of the copolymer, based on the total carboxylic acid content of the parent acid copolymer as calculated for the non-neutralized parent acid copolymer, are neutralized to carboxylic acid salts comprising sodium cations; (b) mixing the solid ionomer composition with water heated to a temperature from 80 to 90 °C under low shear conditions to provide a heated aqueous ionomer dispersion; and (c) optionally cooling the heated aqueous ionomer dispersion to a temperature of 20 to 30 °C, wherein the ionomer remains dispersed in the liquid phase.
A system for controlling a dental or medical treatment apparatus, comprising: (a) a footswitch device containing a first switch and second switch and having a foot-depressable member, the member being depressed to a first position for activating the first switch and the member being depressed to a second position for activating the second switch, the device further including a communication element for transmitting a first operational signal in a hardwired manner in response to the member being depressed to the first position and a second operational signal in a hard-wired manner in response to the member being depressed to the second position; and (b) a dental or medical treatment apparatus including a communication element for receiving the first and second operational signals from the footswitch, the first signal causing the apparatus to operate in a first mode and the second signal causing the apparatus to operate in a second mode, characterized in that the footswitch is adapted to transmit operational signals in a wireless manner to the dental or medical treatment apparatus, until the apparatus transmits a REQUEST SLEEP signal to the footswitch and the footswitch responds by entering a sleep mode, the wireless operational signals being ignored by the apparatus. (a) a footswitch device containing a first switch and second switch and having a foot-depressable member, the member being depressed to a first position for activating the first switch and the member being depressed to a second position for activating the second switch, the device further including a communication element for transmitting a first operational signal in a hardwired manner in response to the member being depressed to the first position and a second operational signal in a hard-wired manner in response to the member being depressed to the second position; and (b) a dental or medical treatment apparatus including a communication element for receiving the first and second operational signals from the footswitch, the first signal causing the apparatus to operate in a first mode and the second signal causing the apparatus to operate in a second mode,
A composition comprising a polyorthoester, maleic acid, an aprotic solvent, and a therapeutically active agent dispersed or solubilized in the composition, wherein the therapeutically active agent is an amino-amide type local anesthetic.
A method for reconditioning a cover plate of a demounted vane of a turbomachine, by means of a forming apparatus, a mounting portion with fastening elements (36, 37) being connected, from a vane root of the vane, radially outward with respect to a rotor axis of the turbomachine, and an airfoil being connected in the opposite direction, a vane head being connected to the airfoil and a cover plate under which a cavity is located being connected to the vane head, the cover plate being bulged in the direction opposite to the vane root, wherein the method comprises at least the following method steps - that, in a first step, an analysis step, dimensions of the demounted vane in relation to the cover plate are determined with respect to predefined reference points on the vane by means of dimension analysis; - that, if, after the analysis step, forming of the cover plate seems necessary and possible on account of a comparison of measurement values from the analysis step with reference values, the bulged cover plate is formed, by pressing by means of the forming apparatus in a forming step; and - that, if appropriate, after the forming step, the cover plate is re-treated in one or more follow-up steps (210 to 218). - that, in a first step, an analysis step, dimensions of the demounted vane in relation to the cover plate are determined with respect to predefined reference points on the vane by means of dimension analysis; - that, if, after the analysis step, forming of the cover plate seems necessary and possible on account of a comparison of measurement values from the analysis step with reference values, the bulged cover plate is formed, by pressing by means of the forming apparatus in a forming step; and - that, if appropriate, after the forming step, the cover plate is re-treated in one or more follow-up steps (210 to 218).
A method for determining the manufacturing dimensions for a connecting element that is to be connected between a first structural element in a first structural block and a second structural element in a second structural block that is connected to the first structural block, characterised in that the method comprises: - scanning the first and the second structural block (202, 204) with at least one laser scanner to obtain point clouds of the structural block ends (206, 207) that are to be connected together, and - comparing the point clouds to 3D digital models of the first and the second structural block (202, 204) to obtain the manufacturing dimensions for the connecting element. - scanning the first and the second structural block (202, 204) with at least one laser scanner to obtain point clouds of the structural block ends (206, 207) that are to be connected together, and - comparing the point clouds to 3D digital models of the first and the second structural block (202, 204) to obtain the manufacturing dimensions for the connecting element.
A display panel, comprising: a base substrate; a plurality of pixel units in an array, wherein each of the plurality of pixel units comprises a light emitting region and a light emitting device in the light emitting region; and a total reflection structure disposed on a light exiting side of the light emitting device and surrounding at least a portion of the light emitting region, wherein the total reflection structure comprises a main structure and a second structure, both the main structure and the second structure are transparent structures, characterized in that the main structure has an upper surface away from the base substrate and a side surface intersecting with the upper surface, and the second structure covers an entirety of the upper surface and an entirety of the side surface of the main structure and is in direct contact with both the upper surface and the side surface, and the refractive index of the second structure is greater than the refractive index of the main structure. a base substrate; a plurality of pixel units in an array, wherein each of the plurality of pixel units comprises a light emitting region and a light emitting device in the light emitting region; and a total reflection structure disposed on a light exiting side of the light emitting device and surrounding at least a portion of the light emitting region, wherein the total reflection structure comprises a main structure and a second structure, both the main structure and the second structure are transparent structures, characterized in that the main structure has an upper surface away from the base substrate and a side surface intersecting with the upper surface, and the second structure covers an entirety of the upper surface and an entirety of the side surface of the main structure and is in direct contact with both the upper surface and the side surface, and the refractive index of the second structure is greater than the refractive index of the main structure.
Method for storing temporary data in a memory of a RFID tag associated with a consumable of a laboratory instrument for processing a reagent or biological sample, the method comprising - providing the RFID tag associated with the consumable, wherein the RFID tag comprises a memory, wherein the memory comprises a user memory, which is configured to store user data, and a system memory, which is configured to store system data, wherein the system memory comprises unique identifier, and - the laboratory instrument writing the temporary data, wherein the temporary data are associated with a process to be carried out by the laboratory instrument, characterized in that the laboratory instrument writes the temporary data into the system memory, wherein by using only a single command the unique identifier as well as the stored temporary data are transmittable from the RFID tag to an RFID reader. - providing the RFID tag associated with the consumable, wherein the RFID tag comprises a memory, wherein the memory comprises a user memory, which is configured to store user data, and a system memory, which is configured to store system data, wherein the system memory comprises unique identifier, and - the laboratory instrument writing the temporary data, wherein the temporary data are associated with a process to be carried out by the laboratory instrument,