mhurhangee/ep-ind-claims huggingface dataset:
A dishwasher (10, 250, 300, 400, 420, 460, 480, 500, 600, 700), comprising: a washing tank (16, 90, 250, 252, 406, 422, 462, 482, 502, 602); one or more sprayers (620, 720) arranged in the washing tank (16, 90, 250, 252, 406, 422, 462, 482, 502, 602); a liquid supply source (622, 722) and an air supply source (524, 532, 546, 624, a controller (30, 112, 224, 628, 728) that is connected to the liquid supply source (622, 722) at and the air supply source (524, 532, 546, 624), characterized in that, 724), the liquid supply source (622, 722) and the air supply source (524, 532, 546, 624, 724) have a single motor and are operated by the single motor, wherein the liquid supply source (622, 722) includes a water pump, the water pump is driven by the single motor, the water pump is in a fluid communication with the one or more sprayers (620, 720), and the water pump is configured to supply a liquid to the one or more sprayers (620, 720), in order to spray the liquid to tableware arranged in the washing tank (16, 90, 250, 252, 406, 422, 462, 482, 502, 602); and wherein the air supply source (524, 532, 546, 624, 724) includes an air pump, the air pump is driven by the single motor, the air pump is in a fluid communication with the one or more sprayers (620, 720), and the air pump is configured to supply a pressurized air to the one or more sprayers (620, 720), in order to spray the pressurized air to the tableware arranged in the washing tank (16, 90, 250, 252, 406, 422, 462, 482, 502, 602). a washing tank (16, 90, 250, 252, 406, 422, 462, 482, 502, 602); one or more sprayers (620, 720) arranged in the washing tank (16, 90, 250, 252, 406, 422, 462, 482, 502, 602); a liquid supply source (622, 722) and an air supply source (524, 532, 546, 624, a controller (30, 112, 224, 628, 728) that is connected to the liquid supply source (622, 722) at and the air supply source (524, 532, 546, 624), characterized in that, 724), the liquid supply source (622, 722) and the air supply source (524, 532, 546, 624, 724) have a single motor and are operated by the single motor, wherein the liquid supply source (622, 722) includes a water pump, the water pump is driven by the single motor, the water pump is in a fluid communication with the one or more sprayers (620, 720), and the water pump is configured to supply a liquid to the one or more sprayers (620, 720), in order to spray the liquid to tableware arranged in the washing tank (16, 90, 250, 252, 406, 422, 462, 482, 502, 602); and wherein the air supply source (524, 532, 546, 624, 724) includes an air pump, the air pump is driven by the single motor, the air pump is in a fluid communication with the one or more sprayers (620, 720), and the air pump is configured to supply a pressurized air to the one or more sprayers (620, 720), in order to spray the pressurized air to the tableware arranged in the washing tank (16, 90, 250, 252, 406, 422, 462, 482, 502, 602).
Process for drying bulk material in pneumatic dryer (1,1',1") having a closed circulation conduit, the process having the steps: - generating a flow of a drying medium through the circulation conduit, - feeding bulk material to the flow of drying medium in the circulation conduit by an inlet feeding device, - drying the bulk material in a drying conduit by transferring heat from the drying medium, - separating the bulk material from the drying medium by separating means, - discharging the bulk material from the dryer (1,1',1"), - supplying a first heating medium (9.4) to a first heat exchanger (9.1;9.1'), - a first heating step wherein the drying medium is conveyed to the first heat exchanger (9.1;9.1') and is indirectly heated by the first heating medium (9.4), the process being characterized by: - supplying a second heating medium (10.4) to a second heat exchanger (10.1;10.1'), - the first heating step is followed by a second heating step wherein the drying medium is conveyed to the second heat exchanger (10.1;10.1') and is indirectly heated by the second heating medium (10.4), and carrying out the first heating step and the second heating step prior to feeding bulk material to the flow of drying medium and and supplying the first heating medium and the second heating medium from a steam turbine and operate the first and the second heat exchanger as a steam turbine condensers, and extracting the first heating medium (9.4) from a first steam outlet of a steam turbine at a first heating medium pressure P1 and extracting the second heating medium (10.4) from a second steam outlet of the steam turbine at a second heating medium pressure P2, wherein P1 is lower than P2. - generating a flow of a drying medium through the circulation conduit, - feeding bulk material to the flow of drying medium in the circulation conduit by an inlet feeding device, - drying the bulk material in a drying conduit by transferring heat from the drying medium, - separating the bulk material from the drying medium by separating means, - discharging the bulk material from the dryer (1,1',1"), - supplying a first heating medium (9.4) to a first heat exchanger (9.1;9.1'), - a first heating step wherein the drying medium is conveyed to the first heat exchanger (9.1;9.1') and is indirectly heated by the first heating medium (9.4), - supplying a second heating medium (10.4) to a second heat exchanger (10.1;10.1'), - the first heating step is followed by a second heating step wherein the drying medium is conveyed to the second heat exchanger (10.1;10.1') and is indirectly heated by the second heating medium (10.4),
Drop-down sealing device for a leaf of a sliding gate, a sliding door or a sliding window, wherein the drop-down sealing device comprises: a housing rail, a sealing strip (11, 12) which is held in the housing rail such that it can be lowered and raised, a lowering mechanism arranged in the housing rail and intended for lowering the sealing strip (11, 12), an actuating element operatively connected to the lowering mechanism and arranged in the housing rail, wherein the actuating element actuates the lowering mechanism by being displaced in the longitudinal direction of the housing rail, and a pivoting element (25, 26) which transmits an external triggering force acting on the pivoting element (25, 26) to the actuating element, wherein the drop-down sealing device comprises a triggering element, wherein the pivoting element (25, 26) can be pivoted about a pivot axis which extends perpendicularly to the longitudinal direction of the housing rail, and wherein the pivoting element (25, 26) has a first arm and a second arm, wherein the triggering element is arranged on the first arm, and wherein the second arm acts on the actuating element, characterized in that the triggering element projects from the first arm perpendicularly to the longitudinal direction of the housing rail and parallel to the pivot axis. a housing rail, a sealing strip (11, 12) which is held in the housing rail such that it can be lowered and raised, a lowering mechanism arranged in the housing rail and intended for lowering the sealing strip (11, 12), an actuating element operatively connected to the lowering mechanism and arranged in the housing rail, wherein the actuating element actuates the lowering mechanism by being displaced in the longitudinal direction of the housing rail, and a pivoting element (25, 26) which transmits an external triggering force acting on the pivoting element (25, 26) to the actuating element, wherein the drop-down sealing device comprises a triggering element, wherein the pivoting element (25, 26) can be pivoted about a pivot axis which extends perpendicularly to the longitudinal direction of the housing rail, and wherein the pivoting element (25, 26) has a first arm and a second arm, wherein the triggering element is arranged on the first arm, and wherein the second arm acts on the actuating element, characterized in that the triggering element projects from the first arm perpendicularly to the longitudinal direction of the housing rail and parallel to the pivot axis.
A heating control method for a ceramic heating element in a non-contact heat not burn heating device, wherein the ceramic heating element comprises a heating body and a heating circuit, the heating body is cylindrical and internally provided with a porous channel, the heating circuit is arranged on the heating body to heat air passing through the porous channel, and the heating control method comprises the following steps: controlling the heating circuit to perform heating work at first working voltage when the non-contact heat not burn heating device is started and keeping working time of the heating circuit; detecting the working current of the heating circuit; and performing voltage reduction control on the working voltage of the heating circuit according to the working time of the heating circuit and the working current of the heating circuit. controlling the heating circuit to perform heating work at first working voltage when the non-contact heat not burn heating device is started and keeping working time of the heating circuit; detecting the working current of the heating circuit; and performing voltage reduction control on the working voltage of the heating circuit according to the working time of the heating circuit and the working current of the heating circuit.
A cable car having a number of cable car stations (3a, 4a) and a number of cable car vehicles movable with a haulage rope between the cable car stations (3a, 4a), wherein a cable car control unit is provided for controlling the cable car, characterized in that a maximum value for an electrical energy consumption of the cable car is predetermined, preferably in the form of a maximum power or a maximum amount of energy, in that an energy detection unit is provided for determining a variable which is representative of the electrical energy consumption of the cable car, and in that the cable car control unit is designed to control or regulate the electrical energy consumption of at least one electrical consumer of the cable car depending on the determined variable in such a manner that the maximum value for the electrical energy consumption predetermined for the cable car is not exceeded.
A dispensing device and pharmaceutical composition for nasal administration to a human, comprising: a container having a conically shaped internal bottom, wherein the internal bottom is angled downwardly from a side of the container toward a center, the center located along a longitudinal axis of the container, the internal bottom including a further angularly deepened well centrally located about the longitudinal axis, said well including a groove therein, the groove further deepening an internal bottom of the well, the groove extending across the longitudinal axis of the container, whereby the internal bottom of the well, at the center, is the low point of the internal bottom of the container; a dispenser head for dispensing the pharmaceutical composition from the container, the dispenser head comprising at least a pump, a dispensing channel, and a dispensing orifice; a dip tube extending along the longitudinal axis of the container, the dip tube having a proximal end communicating with the dispenser head and an open distal end extending into the well; and an aqueous pharmaceutical composition in the container, the composition comprising: 0.001% w/w to 0.075% w/w mometasone, an ester thereof, or a salt thereof in particulate form; 0.5% w/w to 0.8% w/w olopatadine or its salt in dissolved form; and a hydrocolloid in an amount sufficient to inhibit phase separation for at least 24 hours when stored at 25 ± 2° C. and 60% ± 5% relative humidity. a container having a conically shaped internal bottom, wherein the internal bottom is angled downwardly from a side of the container toward a center, the center located along a longitudinal axis of the container, the internal bottom including a further angularly deepened well centrally located about the longitudinal axis, said well including a groove therein, the groove further deepening an internal bottom of the well, the groove extending across the longitudinal axis of the container, whereby the internal bottom of the well, at the center, is the low point of the internal bottom of the container; a dispenser head for dispensing the pharmaceutical composition from the container, the dispenser head comprising at least a pump, a dispensing channel, and a dispensing orifice; a dip tube extending along the longitudinal axis of the container, the dip tube having a proximal end communicating with the dispenser head and an open distal end extending into the well; and an aqueous pharmaceutical composition in the container, the composition comprising: 0.001% w/w to 0.075% w/w mometasone, an ester thereof, or a salt thereof in particulate form; 0.5% w/w to 0.8% w/w olopatadine or its salt in dissolved form; and a hydrocolloid in an amount sufficient to inhibit phase separation for at least 24 hours when stored at 25 ± 2° C. and 60% ± 5% relative humidity. 0.001% w/w to 0.075% w/w mometasone, an ester thereof, or a salt thereof in particulate form; 0.5% w/w to 0.8% w/w olopatadine or its salt in dissolved form; and a hydrocolloid in an amount sufficient to inhibit phase separation for at least 24 hours when stored at 25 ± 2° C. and 60% ± 5% relative humidity.
An electrode (100,100') for use in a plasma arc torch comprising: a conductive body (220, 238) defining a proximal end portion, a distal end portion, and a distal end face disposed at the distal end portion; a plurality of emissive inserts extending through the distal end face and into the distal end portion, wherein the emissive inserts are encircled by an encircling ring, and the diameter of encircling ring is a function of a diameter (D 1) of a central orifice of a tip or a diameter (D 2) of a tip counter-sink, wherein each of the plurality of emissive inserts has a cylindrical distal end portion disposed proximate the distal end face, and a cylindrical proximal end portion characterized in that said proximal end portion extends radially and outwardly from the distal end portion at an angle relative to the distal end portion of the emissive inserts. a conductive body (220, 238) defining a proximal end portion, a distal end portion, and a distal end face disposed at the distal end portion; a plurality of emissive inserts extending through the distal end face and into the distal end portion, wherein the emissive inserts are encircled by an encircling ring, and the diameter of encircling ring is a function of a diameter (D 1) of a central orifice of a tip or a diameter (D 2) of a tip counter-sink, wherein each of the plurality of emissive inserts has a cylindrical distal end portion disposed proximate the distal end face, and a cylindrical proximal end portion characterized in that said proximal end portion extends radially and outwardly from the distal end portion at an angle relative to the distal end portion of the emissive inserts.
Method for inductively heating an inductively heatable cooking vessel by means of at least one induction coil of an induction cooking appliance, the induction cooking appliance comprising: - at least one primary induction coil, - a cover over the primary induction coil, - a power supply for the primary induction coil, - a cooking appliance control connected to the power supply, wherein a display (25a-d, 130a-d) for an operator is provided, in order to show an operator whether or not a transmission coaster is positioned in an optimum position above the primary induction coil, characterized by at least one transmission coaster (21, 121) which is freely movable independently of the cooking appliance, in order to place it onto any position on the cover above the primary induction coil, wherein the transmission coaster has at least one oscillating circuit including at least one oscillating circuit coil and at least one oscillating circuit capacitor for transmission of inductive power from the primary induction coil via the oscillating circuit into the cooking vessel placed on the transmission coaster (21, 121), wherein the following steps are provided: - detecting a position of the transmission coaster (21, 121) relative to the primary induction coil, - in case of a deviation of the position by more than a limit distance from a predefined optimum position, giving information to the operator on the display (25a-d, 130a-d) in which direction the transmission coaster is to be moved, in order to obtain the optimum position. - at least one primary induction coil, - a cover over the primary induction coil, - a power supply for the primary induction coil, - a cooking appliance control connected to the power supply, - detecting a position of the transmission coaster (21, 121) relative to the primary induction coil, - in case of a deviation of the position by more than a limit distance from a predefined optimum position, giving information to the operator on the display (25a-d, 130a-d) in which direction the transmission coaster is to be moved, in order to obtain the optimum position.
Lighting and/or signalling device for a vehicle, comprising at least one first light source and at least one second light source, and at least one light reflector capable of reflecting the light emitted by said at least one first source and the light emitted by said at least one second source, - said at least one reflector having a paraboloid form comprising a plurality of segments (5, 6) comprising a central segment having a focus and at least one peripheral segment adjacent to said central segment, the peripheral segment having another focus, the device being characterized in that: - said first light source is disposed at the focus of said central segment, - said second light source is disposed at the focus of said at least one peripheral segment, preferentially of each peripheral segment, - said central segment is configured to reflect the light emitted by said at least one first light source, such that the device is capable of generating a light distribution of a daytime running light, and - said at least one peripheral segment is configured to reflect the light emitted by said at least one second light source, such that said device is capable of generating a light distribution of a main beam. - said at least one reflector having a paraboloid form comprising a plurality of segments (5, 6) comprising a central segment having a focus and at least one peripheral segment adjacent to said central segment, the peripheral segment having another focus, - said first light source is disposed at the focus of said central segment, - said second light source is disposed at the focus of said at least one peripheral segment, preferentially of each peripheral segment, - said central segment is configured to reflect the light emitted by said at least one first light source, such that the device is capable of generating a light distribution of a daytime running light, and - said at least one peripheral segment is configured to reflect the light emitted by said at least one second light source, such that said device is capable of generating a light distribution of a main beam.
An extracorporeal perfusion system comprising: a first device requiring temperature-control; a second device requiring temperature control; a first intermediate heat exchanger configured to exchange heat between a first flow of heat transfer fluid and a first intermediate fluid that circulates in a closed loop through the first device; a second intermediate heat exchanger configured to exchange heat between a second flow of heat transfer fluid and a second intermediate fluid that circulates in a closed loop through the second device; and a heater-cooler apparatus comprising: a thermal generator unit (A; 100) configured to simultaneously provide separate supplies of the heat transfer fluid, one at a higher temperature and one at a lower temperature to respective hot and cold flow circuits (102, 104); and first and second controlled off-takes from each of said hot and cold flow circuits (102, 104), the first controlled off-takes configured to provide the first flow of heat transfer fluid to the first intermediate heat exchanger and the second controlled off-takes configured to provide the second flow of heat transfer fluid to the second intermediate heat exchanger. a first device requiring temperature-control; a second device requiring temperature control; a first intermediate heat exchanger configured to exchange heat between a first flow of heat transfer fluid and a first intermediate fluid that circulates in a closed loop through the first device; a second intermediate heat exchanger configured to exchange heat between a second flow of heat transfer fluid and a second intermediate fluid that circulates in a closed loop through the second device; and a heater-cooler apparatus comprising: a thermal generator unit (A; 100) configured to simultaneously provide separate supplies of the heat transfer fluid, one at a higher temperature and one at a lower temperature to respective hot and cold flow circuits (102, 104); and first and second controlled off-takes from each of said hot and cold flow circuits (102, 104), the first controlled off-takes configured to provide the first flow of heat transfer fluid to the first intermediate heat exchanger and the second controlled off-takes configured to provide the second flow of heat transfer fluid to the second intermediate heat exchanger. a thermal generator unit (A; 100) configured to simultaneously provide separate supplies of the heat transfer fluid, one at a higher temperature and one at a lower temperature to respective hot and cold flow circuits (102, 104); and first and second controlled off-takes from each of said hot and cold flow circuits (102, 104), the first controlled off-takes configured to provide the first flow of heat transfer fluid to the first intermediate heat exchanger and the second controlled off-takes configured to provide the second flow of heat transfer fluid to the second intermediate heat exchanger.