mhurhangee/patent-ind-claim-en huggingface dataset:
A cooking assembly comprising: a. a cookware vessel having a bottom , substantially upright sidewalls extending upward there from to terminate at a rim , the sidewall encircling said bottom portion to form an interior portion capable of retaining a fluid, b. a sealing means to form a vacuum within the vessel , wherein the sealing means is a gasket and lid and the gasket is adapted to engage a portion of the vessel rim , c. a heating means for providing thermal communication with said cookware vessel , d. a programmable controller to modulate the output of the heating means , e. a thermal probe adapted to measure a temperature of at least a portion of the vessel or the environment thereof, f. a transmitter device adapted to receive the output of the thermal probe and transmit values thereof to the programmable controller , g. wherein the programmable controller is operative to energize and de-energize one or more coils to maintain a pre-determined temperature entered into the controller in response to the temperature measured by the transmitter device , wherein the cooking assembly includes a means to reduce the partial pressure of air in the vacuum sealed vessel to 0.3 Bar and less, the cooking assembly being characterized in that the one or more coils are induction coils, and in that the gasket is operative to be urged downward by the lid when the vessel is evacuated so that a visible portion thereof above the vessel rim is disposed below the vessel rim after evacuation. a. a cookware vessel having a bottom , substantially upright sidewalls extending upward there from to terminate at a rim , the sidewall encircling said bottom portion to form an interior portion capable of retaining a fluid, b. a sealing means to form a vacuum within the vessel , wherein the sealing means is a gasket and lid and the gasket is adapted to engage a portion of the vessel rim , c. a heating means for providing thermal communication with said cookware vessel , d. a programmable controller to modulate the output of the heating means , e. a thermal probe adapted to measure a temperature of at least a portion of the vessel or the environment thereof, f. a transmitter device adapted to receive the output of the thermal probe and transmit values thereof to the programmable controller , g. wherein the programmable controller is operative to energize and de-energize one or more coils to maintain a pre-determined temperature entered into the controller in response to the temperature measured by the transmitter device ,
A mold flux for continuous casting which has a base material composition containing: 25 to 60 mass% of CaO; 15 to 45 mass% of SiO 2 ; 5 to 25 mass% of F; 0.20 to 1.00 mass% of S; and 0 to 20 mass% of a total of Li 2 O, Na 2 O, and K 2 O, wherein in the base material composition, f represented by Formula 1 is 0.90 to 1.90, f represented by Formula 2 is 0.10 to 0.40, f represented by Formula 3 is 0 to 0.40, and a total of CaO, SiO 2 , F, S, Li 2 O, Na 2 O, and K 2 O is 90 to 100 mass%, f 1 = CaO h / SiO 2 h f 2 = CaF 2 h / CaO h + SiO 2 h + CaF 2 h f 3 = MF h / CaO h + SiO 2 h + MF h where (CaO) h , (SiO 2 ) h , (CaF 2 ) h , and (MF) h in Formulae 1 to 3 are calculated as follows, CaO h = W CaO − CaF 2 h × 0.718 SiO 2 h = W SiO 2 CaF 2 h = W F − W Li 2 O × 1.27 − W Na 2 O × 0.613 − W K 2 O × 0.403 × 2.05 MF h = W Li 2 O × 1.74 + W Na 2 O × 1.35 + W K 2 O × 1.23 where W i represents a percentage by mass of each component i. 25 to 60 mass% of CaO; 15 to 45 mass% of SiO 2 ; 5 to 25 mass% of F; 0.20 to 1.00 mass% of S; and 0 to 20 mass% of a total of Li 2 O, Na 2 O, and K 2 O, wherein in the base material composition, f represented by Formula 1 is 0.90 to 1.90, f represented by Formula 2 is 0.10 to 0.40, f represented by Formula 3 is 0 to 0.40, and a total of CaO, SiO 2 , F, S, Li 2 O, Na 2 O, and K 2 O is 90 to 100 mass%, f 1 = CaO h / SiO 2 h f 2 = CaF 2 h / CaO h + SiO 2 h + CaF 2 h f 3 = MF h / CaO h + SiO 2 h + MF h where (CaO) h , (SiO 2 ) h , (CaF 2 ) h , and (MF) h in Formulae 1 to 3 are calculated as follows, CaO h = W CaO − CaF 2 h × 0.718 SiO 2 h = W SiO 2 CaF 2 h = W F − W Li 2 O × 1.27 − W Na 2 O × 0.613 − W K 2 O × 0.403 × 2.05 MF h = W Li 2 O × 1.74 + W Na 2 O × 1.35 + W K 2 O × 1.23 where W i represents a percentage by mass of each component i. f represented by Formula 1 is 0.90 to 1.90, f represented by Formula 2 is 0.10 to 0.40, f represented by Formula 3 is 0 to 0.40, and a total of CaO, SiO 2 , F, S, Li 2 O, Na 2 O, and K 2 O is 90 to 100 mass%, f 1 = CaO h / SiO 2 h f 2 = CaF 2 h / CaO h + SiO 2 h + CaF 2 h f 3 = MF h / CaO h + SiO 2 h + MF h where (CaO) h , (SiO 2 ) h , (CaF 2 ) h , and (MF) h in Formulae 1 to 3 are calculated as follows, CaO h = W CaO − CaF 2 h × 0.718 SiO 2 h = W SiO 2 CaF 2 h = W F − W Li 2 O × 1.27 − W Na 2 O × 0.613 − W K 2 O × 0.403 × 2.05 MF h = W Li 2 O × 1.74 + W Na 2 O × 1.35 + W K 2 O × 1.23 where W i represents a percentage by mass of each component i.
A shank assembly for an agricultural tillage implement comprising a frame , comprising: a support arm comprising a first end and a second end, the first end being configured for pivotally connecting to the frame ; a shank comprising a first end and a second end, the first end of the shank being connected to the second end of the support arm ; a point connected to the second end of the shank and configured for engaging with soil; and a float monitoring system , characterized in that: the float monitoring system comprises: a first sensor configured for being connected to the frame and sensing a home position; a second sensor connected to the support arm and configured for sensing an angular position of the support arm relative to the frame ; and an electronic control unit operably connected to the first sensor and the second sensor and configured for comparing the home position and the angular position of the support arm and determining a float of the shank as the shank is towed in a forward direction of travel. a support arm comprising a first end and a second end, the first end being configured for pivotally connecting to the frame ; a shank comprising a first end and a second end, the first end of the shank being connected to the second end of the support arm ; a point connected to the second end of the shank and configured for engaging with soil; and a float monitoring system , characterized in that: the float monitoring system comprises: a first sensor configured for being connected to the frame and sensing a home position; a second sensor connected to the support arm and configured for sensing an angular position of the support arm relative to the frame ; and an electronic control unit operably connected to the first sensor and the second sensor and configured for comparing the home position and the angular position of the support arm and determining a float of the shank as the shank is towed in a forward direction of travel. a first sensor configured for being connected to the frame and sensing a home position; a second sensor connected to the support arm and configured for sensing an angular position of the support arm relative to the frame ; and an electronic control unit operably connected to the first sensor and the second sensor and configured for comparing the home position and the angular position of the support arm and determining a float of the shank as the shank is towed in a forward direction of travel.
Disc brake for a commercial vehicle, having - a brake carrier , engaging over a brake disc , having a flange area for fastening the brake carrier to an axle of the commercial vehicle and a receiving area for supporting at least one brake pad , - a brake calliper held on the brake carrier so as to be axially displaceable in the direction (x) of an axis of rotation of the brake disc , - wherein brake pads can be positioned on both sides of the brake disc within the brake calliper , which can be pressed, in a braking operation, against the brake disc by means of an application device, - a visual wear detection means for detecting the wear of a brake disc and/or brake pad, - wherein the visual wear detection means has a material protrusion formed in the flange area of the brake carrier and a mechanically reworked planar reference surface formed on the brake calliper and orientated perpendicular to the displacement direction (x) of the brake calliper , characterised in that - the material protrusion has a plurality of mechanically reworked planar surfaces orientated one behind the other in the displacement direction of the brake calliper and perpendicular to the displacement direction (x) of the brake calliper , - wherein the surfaces of the material protrusion and the reference surface of the brake calliper are positioned such that they can be visually detected simultaneously from a predetermined viewing direction. - a brake carrier , engaging over a brake disc , having a flange area for fastening the brake carrier to an axle of the commercial vehicle and a receiving area for supporting at least one brake pad , - a brake calliper held on the brake carrier so as to be axially displaceable in the direction (x) of an axis of rotation of the brake disc , - wherein brake pads can be positioned on both sides of the brake disc within the brake calliper , which can be pressed, in a braking operation, against the brake disc by means of an application device, - a visual wear detection means for detecting the wear of a brake disc and/or brake pad, - wherein the visual wear detection means has a material protrusion formed in the flange area of the brake carrier and a mechanically reworked planar reference surface formed on the brake calliper and orientated perpendicular to the displacement direction (x) of the brake calliper , - the material protrusion has a plurality of mechanically reworked planar surfaces orientated one behind the other in the displacement direction of the brake calliper and perpendicular to the displacement direction (x) of the brake calliper , - wherein the surfaces of the material protrusion and the reference surface of the brake calliper are positioned such that they can be visually detected simultaneously from a predetermined viewing direction.
Solar sensor, having: - for attaching to a mounting plate , a one-piece first modulator that is transmissive for electromagnetic waves within a spectrum and has two dome-shaped regions , wherein the dome-shaped regions each cover a photodetector that receives the electromagnetic waves, - a further modulator that is at most slightly transmissive for the electromagnetic waves within said spectrum, characterized in that - the further modulator has two belt-type regions with in each case varying width (w), is arranged on the outer side of the first modulator and partially covers the first modulator, wherein the belt-type regions of the further modulator have a design that is wider in the upper, dome-shaped regions of the first modulator than in the regions of the first modulator that are closer to the mounting plate . - for attaching to a mounting plate , a one-piece first modulator that is transmissive for electromagnetic waves within a spectrum and has two dome-shaped regions , wherein the dome-shaped regions each cover a photodetector that receives the electromagnetic waves, - a further modulator that is at most slightly transmissive for the electromagnetic waves within said spectrum, - the further modulator has two belt-type regions with in each case varying width (w), is arranged on the outer side of the first modulator and partially covers the first modulator, wherein the belt-type regions of the further modulator have a design that is wider in the upper, dome-shaped regions of the first modulator than in the regions of the first modulator that are closer to the mounting plate .
Step drill with - a distal end and an opposite proximal end , - a drill tip that has a tip at the distal end of the step drill and comprises a number of geometrically defined cutters , each of which is paired with a flute and lies on an imaginary first circular line about a longitudinal axis of the step drill , said circular line having a first radius, - at least one drill step that is arranged at a distance from the distal end and has an end face with a number of geometrically defined cutters , each of which is paired with a flute and lies on an imaginary second circular line that runs about the longitudinal axis of the step drill , said circular line having a second radius, wherein - the first radius is smaller than the second radius, wherein - the flutes of the drill tip and the flutes of the drill step merge in a region, which is arranged at a greater distance from the distal end than the end face of the drill step , and form a single flute, characterized in that - the core of the flutes associated with the drill step tapers, wherein the core diameter, proceeding from the end face of the drill step in the direction of the proximal end of the step drill , becomes smaller. - a distal end and an opposite proximal end , - a drill tip that has a tip at the distal end of the step drill and comprises a number of geometrically defined cutters , each of which is paired with a flute and lies on an imaginary first circular line about a longitudinal axis of the step drill , said circular line having a first radius, - at least one drill step that is arranged at a distance from the distal end and has an end face with a number of geometrically defined cutters , each of which is paired with a flute and lies on an imaginary second circular line that runs about the longitudinal axis of the step drill , said circular line having a second radius, wherein - the first radius is smaller than the second radius, wherein - the flutes of the drill tip and the flutes of the drill step merge in a region, which is arranged at a greater distance from the distal end than the end face of the drill step , and form a single flute, - the core of the flutes associated with the drill step tapers, wherein the core diameter, proceeding from the end face of the drill step in the direction of the proximal end of the step drill , becomes smaller.
A fuel cell system comprising at least one fuel cell arranged for a reformation of a hydrocarbon and a hydrocarbon generation unit connected to an anode outlet of the fuel cell for generating the hydrocarbon out of a partially unconverted exhaust stream of the anode outlet of the fuel cell , wherein the fuel cell is thermally decoupled from the hydrocarbon generation unit so that the exothermal hydrocarbon generation reaction and the endothermal reformation reaction are capable of proceeding independently from each other without one reaction thermally interfering the other.
Method for operation of a battery-powered control device designed as stand-alone-device with microcontroller as part of a building installation system, in which method the control device is switched into different modes in order to reduce its power consumption, of which a first mode of the control device is the mode in which the command or commands linked to a manual sensor actuation are issued, and of which a second mode is a sleep mode into which the control device is switched after completion of the action carried out, all current consumers including the microcontroller of the control device being switched off to reach the sleep mode, characterized by the fact • that in sleep mode the switching position of a mechanical sensor or mechanical sensors is monitored by means of a trigger circuit having a flip-flop and an electronic switching unit and • that as a result of a manual actuation of the sensor the input of the electronic switching unit is supplied with current via a short-circuit line arranged between the set input (S) and the output (Q) of the flip-flop , the microcontroller and the current consumers are thereby supplied with current, the flip-flop gets ready for operation and the output (Q) of the flip-flop is set to a logic 1, so that the current supply remains ensured even with an open sensor and then the action requested by actuating the sensor is carried out, • before the control device is switched back to its sleep mode by setting the output (Q) of the flip-flop to a logic 0, whereby the electronic switching unit receives the control signal for switching. • that in sleep mode the switching position of a mechanical sensor or mechanical sensors is monitored by means of a trigger circuit having a flip-flop and an electronic switching unit and • that as a result of a manual actuation of the sensor the input of the electronic switching unit is supplied with current via a short-circuit line arranged between the set input (S) and the output (Q) of the flip-flop , the microcontroller and the current consumers are thereby supplied with current, the flip-flop gets ready for operation and the output (Q) of the flip-flop is set to a logic 1, so that the current supply remains ensured even with an open sensor and then the action requested by actuating the sensor is carried out, • before the control device is switched back to its sleep mode by setting the output (Q) of the flip-flop to a logic 0, whereby the electronic switching unit receives the control signal for switching.
A pier hatch control system for separating a bonded zone and an unbonded zone from each other in broad areas accessible to public and in cruise ports comprising ; - A hatch comprising: • steel construction profiles , • plates of concrete coating on the steel construction profiles , wherein the hatch is located in parallel to the ground thus raising upward from one surface on the ground so that the hatch creates a barrier between the bonded zone and the unbonded zone by means of opening in way of raising upward on the ground, - An actuator provided inside of the hatch and providing opening-closing of the hatch by means of rotation motion, - A hydraulic power unit connected to the actuator and providing power transmission to the actuator , - A control center connected to the hydraulic power unit and sending command to the hydraulic power unit to provide opening-closing of the hatch . - A hatch comprising: • steel construction profiles , • plates of concrete coating on the steel construction profiles , wherein the hatch is located in parallel to the ground thus raising upward from one surface on the ground so that the hatch creates a barrier between the bonded zone and the unbonded zone by means of opening in way of raising upward on the ground, • steel construction profiles , • plates of concrete coating on the steel construction profiles , wherein the hatch is located in parallel to the ground thus raising upward from one surface on the ground so that the hatch creates a barrier between the bonded zone and the unbonded zone by means of opening in way of raising upward on the ground, - An actuator provided inside of the hatch and providing opening-closing of the hatch by means of rotation motion, - A hydraulic power unit connected to the actuator and providing power transmission to the actuator , - A control center connected to the hydraulic power unit and sending command to the hydraulic power unit to provide opening-closing of the hatch .
A cell comprising: a columnar support having a first main face and a second main face; and an element comprising a first electrode layer , a solid electrolyte layer , and a second electrode layer , laminated in sequence on the first main face of the support , wherein the porosity of at least one of two end portions (E1, E2) of the support in the longitudinal direction (L) is lower than that of the central portion (C) of the support in the longitudinal direction (L), the solid electrolyte layer comprises an oxide including a rare earth oxide, the solid electrolyte layer and a reinforcement layer are laminated in sequence on the first main face in one of the end portions (E1, E2) of the support , the reinforcement layer comprising the same oxide as the solid electrolyte layer and including the rare earth oxide in a different content from the solid electrolyte layer , the reinforcement layer is laminated on the second main face, and the porosity at the first main face of the support in one of the end portions (E1, E2) is lower than that in the second main face. a columnar support having a first main face and a second main face; and an element comprising a first electrode layer , a solid electrolyte layer , and a second electrode layer , laminated in sequence on the first main face of the support , wherein the porosity of at least one of two end portions (E1, E2) of the support in the longitudinal direction (L) is lower than that of the central portion (C) of the support in the longitudinal direction (L), the solid electrolyte layer comprises an oxide including a rare earth oxide, the solid electrolyte layer and a reinforcement layer are laminated in sequence on the first main face in one of the end portions (E1, E2) of the support , the reinforcement layer comprising the same oxide as the solid electrolyte layer and including the rare earth oxide in a different content from the solid electrolyte layer , the reinforcement layer is laminated on the second main face, and the porosity at the first main face of the support in one of the end portions (E1, E2) is lower than that in the second main face.
An adaptive resonance power transmitter comprising: a source resonator configured to transmit resonance power to a resonance power receiver , the source resonator having a predetermined reference impedance; a power amplifier configured to amplify a source power to a power level used by the resonance power receiver , the power amplifier comprising a matching network configured to match an impedance of the power amplifier to the reference impedance; and an offset line connected to the matching network and the source resonator , characterized in that : the offset line comprises at least one inductor and at least one capacitor so that the offset line has a linear impedance value in a preset range corresponding to an impedance characteristic of the reference impedance, and an impedance value of the offset line is predetermined within the preset range so that the matching network is allowed to match the impedance of the power amplifier to a second impedance, when an impedance of the source resonator is changed to the second impedance, the second impedance being different from the reference impedance and within the preset range. a source resonator configured to transmit resonance power to a resonance power receiver , the source resonator having a predetermined reference impedance; a power amplifier configured to amplify a source power to a power level used by the resonance power receiver , the power amplifier comprising a matching network configured to match an impedance of the power amplifier to the reference impedance; and an offset line connected to the matching network and the source resonator , characterized in that : the offset line comprises at least one inductor and at least one capacitor so that the offset line has a linear impedance value in a preset range corresponding to an impedance characteristic of the reference impedance, and an impedance value of the offset line is predetermined within the preset range so that the matching network is allowed to match the impedance of the power amplifier to a second impedance, when an impedance of the source resonator is changed to the second impedance, the second impedance being different from the reference impedance and within the preset range. the offset line comprises at least one inductor and at least one capacitor so that the offset line has a linear impedance value in a preset range corresponding to an impedance characteristic of the reference impedance, and an impedance value of the offset line is predetermined within the preset range so that the matching network is allowed to match the impedance of the power amplifier to a second impedance, when an impedance of the source resonator is changed to the second impedance, the second impedance being different from the reference impedance and within the preset range.