mhurhangee/patent-ind-claim-en huggingface dataset:
A cooking apparatus comprising: a cooker body comprising a cooking compartment and a storage compartment below the cooking compartment ; a drawer comprising a storage space , and sliding the drawer into and out of the storage compartment closes and opens the storage space ; a steam supplier configured to generate steam and supply the generated steam to the cooking compartment ; and a water tank configured to store water for generating the steam, and provided in a region of the storage compartment independent from the sliding of the drawer , wherein the steam supplier comprises: a steam generator configured to heat up water to be turned into steam, and a water supplying pipe provided in the cooker body to supply water between the water tank and the steam generator , wherein the water tank comprises: a storage main body , and a connector provided at the back of the storage main body , wherein the connector is configured to removably couple to a water flow path between the water tank and the water supplying pipe , characterized in that the connector comprises a vertical portion extended upward from the bottom of the storage main body , and a horizontal portion horizontally extended backward and arranged to be supported on the storage main body to be stationary, and in that the water tank comprises a top cover, and the connector is provided at the back end of the top cover. a cooker body comprising a cooking compartment and a storage compartment below the cooking compartment ; a drawer comprising a storage space , and sliding the drawer into and out of the storage compartment closes and opens the storage space ; a steam supplier configured to generate steam and supply the generated steam to the cooking compartment ; and a water tank configured to store water for generating the steam, and provided in a region of the storage compartment independent from the sliding of the drawer , wherein the steam supplier comprises: a steam generator configured to heat up water to be turned into steam, and a water supplying pipe provided in the cooker body to supply water between the water tank and the steam generator , wherein the water tank comprises: a storage main body , and a connector provided at the back of the storage main body , wherein the connector is configured to removably couple to a water flow path between the water tank and the water supplying pipe , characterized in that the connector comprises a vertical portion extended upward from the bottom of the storage main body , and a horizontal portion horizontally extended backward and arranged to be supported on the storage main body to be stationary, and in that the water tank comprises a top cover, and the connector is provided at the back end of the top cover.
An artificial airway including: an airway tube having at least one airway conduit therein; a cuff mounted on a distal end of the tube and having a recess which is in fluid communication with the airway conduit; an evacuation chamber is located at a distal end of the cuff, the chamber, in use, being in fluid communication with the oesophagus of a patient; an evacuation conduit is provided in fluid communication with the evacuation chamber; and characterized in that a ventilation conduit is provided in fluid communication with the evacuation chamber, the arrangement being such that, in use, suction is applied to the evacuation conduit whereby regurgitated material entering the evacuation chamber is removed through evacuation conduit and wherein the ventilation conduit substantially prevents a negative pressure being applied to the tissue of the patient. an airway tube having at least one airway conduit therein; a cuff mounted on a distal end of the tube and having a recess which is in fluid communication with the airway conduit; an evacuation chamber is located at a distal end of the cuff, the chamber, in use, being in fluid communication with the oesophagus of a patient; an evacuation conduit is provided in fluid communication with the evacuation chamber; and characterized in that a ventilation conduit is provided in fluid communication with the evacuation chamber, the arrangement being such that, in use, suction is applied to the evacuation conduit whereby regurgitated material entering the evacuation chamber is removed through evacuation conduit and wherein the ventilation conduit substantially prevents a negative pressure being applied to the tissue of the patient.
A gas turbine engine comprising: a compressor ; a combustor fluidly connected to the compressor via a flow path; a turbine fluidly connected to the combustor via the flow path; at least one multi-piece structure (100; 200; 300) disposed within said flow path such that the multi-piece structure (100; 200; 300) at least partially radially spans the flow path, and wherein the at least one multi-piece structure (100; 200; 300) includes: a fore portion (102; 202; 302; 402; 502) defining a leading edge (106; 208), wherein the fore portion (102; 202; 302; 402; 502) has at least one internal cooling cavity; an aft portion (104; 204; 304; 404; 504) defining a trailing edge (108; 208), wherein the aft portion (204; 304) has a teardrop shaped profile; a pressure surface (260; 360) at least partially defined by a first surface of said fore portion (102; 202; 302; 402; 502) and a first surface of said aft portion (104; 204; 304; 404; 504); a suction surface (270; 370) at least partially defined by a second surface of said fore portion (102; 202; 302; 402; 502) and a second surface of said aft portion (104; 204; 304; 404; 504). a compressor ; a combustor fluidly connected to the compressor via a flow path; a turbine fluidly connected to the combustor via the flow path; at least one multi-piece structure (100; 200; 300) disposed within said flow path such that the multi-piece structure (100; 200; 300) at least partially radially spans the flow path, and wherein the at least one multi-piece structure (100; 200; 300) includes: a fore portion (102; 202; 302; 402; 502) defining a leading edge (106; 208), wherein the fore portion (102; 202; 302; 402; 502) has at least one internal cooling cavity; an aft portion (104; 204; 304; 404; 504) defining a trailing edge (108; 208), wherein the aft portion (204; 304) has a teardrop shaped profile; a pressure surface (260; 360) at least partially defined by a first surface of said fore portion (102; 202; 302; 402; 502) and a first surface of said aft portion (104; 204; 304; 404; 504); a suction surface (270; 370) at least partially defined by a second surface of said fore portion (102; 202; 302; 402; 502) and a second surface of said aft portion (104; 204; 304; 404; 504). a fore portion (102; 202; 302; 402; 502) defining a leading edge (106; 208), wherein the fore portion (102; 202; 302; 402; 502) has at least one internal cooling cavity; an aft portion (104; 204; 304; 404; 504) defining a trailing edge (108; 208), wherein the aft portion (204; 304) has a teardrop shaped profile; a pressure surface (260; 360) at least partially defined by a first surface of said fore portion (102; 202; 302; 402; 502) and a first surface of said aft portion (104; 204; 304; 404; 504); a suction surface (270; 370) at least partially defined by a second surface of said fore portion (102; 202; 302; 402; 502) and a second surface of said aft portion (104; 204; 304; 404; 504).
A die casting assembly comprising: a cavity defined by a plurality of dies , said cavity including at least one sharp corner having an angle of less than or equal to 110°; each of said dies including a plurality of die segments , each of said die segments contacting at least one other of said plurality of die segments ; and a first die segment joint between at least two of said die segments , wherein said die segment joint is aligned with said sharp corner ; characterised in that at least one of said die segments is a T-shaped die segment which introduces a corner in the joint , where the T-shaped die segment contacts at least one other of said plurality of die segments , and which forms a portion of the at least one sharp corner . a cavity defined by a plurality of dies , said cavity including at least one sharp corner having an angle of less than or equal to 110°; each of said dies including a plurality of die segments , each of said die segments contacting at least one other of said plurality of die segments ; and a first die segment joint between at least two of said die segments , wherein said die segment joint is aligned with said sharp corner ; characterised in that at least one of said die segments is a T-shaped die segment which introduces a corner in the joint , where the T-shaped die segment contacts at least one other of said plurality of die segments , and which forms a portion of the at least one sharp corner .
An electrolyte for an electrochemical battery cell comprising: i. a carbonate : nitrile type solvent mixture based electrolyte, wherein the electrolyte comprises at least one polymer additive; or ii. a dimethylcarbonate (DMC) : malononitrile (MLN) solvent mixture based electrolyte or a dimethylcarbonate (DMC) : (succinonitrile (SCN) : malononitrile (MLN)) solvent mixture based electrolyte, wherein the electrolyte further comprises an alkali salt and the electrolyte is liquid during electrochemical operation. i. a carbonate : nitrile type solvent mixture based electrolyte, wherein the electrolyte comprises at least one polymer additive; or ii. a dimethylcarbonate (DMC) : malononitrile (MLN) solvent mixture based electrolyte or a dimethylcarbonate (DMC) : (succinonitrile (SCN) : malononitrile (MLN)) solvent mixture based electrolyte, wherein the electrolyte further comprises an alkali salt and the electrolyte is liquid during electrochemical operation.
A method of controlling operation of a high-temperature storage battery connected to an electric power system , comprising the steps of, when the temperature of the storage battery is equal to or lower than a reference temperature (Ta), charging and discharging the storage battery with charging and discharging electric power, which is the sum of charging and discharging electric power based on a preset process of operating the storage battery and additional charging and discharging electric power corresponding to charging and discharging cycles each of a continuous charging time of 1 hour or shorter and a continuous discharging time of 1 hour or shorter, for thereby supplying thermal energy to the storage battery , characterized in that for rising battery temperature up to a target temperature (Tc), which is lower than the reference temperature (Ta), an electrical heater is applied, and for rising battery temperature above the target temperature (Tc) priority is given to supply thermal energy to the storage battery by the additional charging and discharging of electric power, over supply of thermal energy to the storage battery by the electrical heater, wherein the amount of thermal energy supplied to the storage battery by the additional charging and discharging is controlled by setting the average amplitude of the additional charging and discharging.
Cyclophosphamide for use in treating a human subject in need of a non-syngeneic cell or tissue graft treated with a dose of T cell depleted immature hematopoietic cells, wherein said T cell depleted immature hematopoietic cells comprise less than 5 x 10 5 CD3 + cells per kilogram body weight of a subject, and wherein said dose comprises at least about 5 x 10 6 CD34 + cells per kilogram body weight of said subject, wherein said cyclophosphamide is to be administered to the subject following transplantation of a cell or tissue graft in a therapeutically effective amount comprising 25-200 mg per kilogram body weight of the subject, and further wherein said subject is not treated with GVHD prophylaxis for more than 10 days post-transplant.
A manufacturing method of a tire integrated electronic device, comprising: a) step (S10) of positioning an electronic device mockup portion inside a first mold unit and a second mold unit; b) step (S20) of performing injection molding or compression molding by injecting unvulcanized rubber inside the first mold unit and the second mold unit such that the unvulcanized rubber encloses the electronic device mockup portion ; c) step (S30) of unmolding a rubber mount unit molded to enclose the electronic device mockup portion ; d) step (S40) of inserting an electronic device unit into a lower end portion of the unmolded rubber mount unit ; and e) step (S50) of attaching the electronic device unit-inserted rubber mount unit to an inner liner of a tire, wherein the rubber mount unit is molded to have a bottom body and an insertion hole at a lower portion of the rubber mount unit in the bottom body of the rubber mount unit , through which the electronic device unit is to be inserted into the lower end portion of the rubber mount unit ; wherein the b) step (S20) includes: b1) step (S21) of injecting the unvulcanized rubber inside the first mold unit and inside the second mold unit; and b2) step (S22) of maintaining a preset vulcanization temperature for a preset vulcanization time so as to induce a crosslinking reaction in the injected unvulcanized rubber; wherein, in the c) (S30) step, the electronic device mockup portion is unmolded from the rubber mount unit . a) step (S10) of positioning an electronic device mockup portion inside a first mold unit and a second mold unit; b) step (S20) of performing injection molding or compression molding by injecting unvulcanized rubber inside the first mold unit and the second mold unit such that the unvulcanized rubber encloses the electronic device mockup portion ; c) step (S30) of unmolding a rubber mount unit molded to enclose the electronic device mockup portion ; d) step (S40) of inserting an electronic device unit into a lower end portion of the unmolded rubber mount unit ; and e) step (S50) of attaching the electronic device unit-inserted rubber mount unit to an inner liner of a tire, wherein the rubber mount unit is molded to have a bottom body and an insertion hole at a lower portion of the rubber mount unit in the bottom body of the rubber mount unit , through which the electronic device unit is to be inserted into the lower end portion of the rubber mount unit ; wherein the b) step (S20) includes: b1) step (S21) of injecting the unvulcanized rubber inside the first mold unit and inside the second mold unit; and b2) step (S22) of maintaining a preset vulcanization temperature for a preset vulcanization time so as to induce a crosslinking reaction in the injected unvulcanized rubber; b1) step (S21) of injecting the unvulcanized rubber inside the first mold unit and inside the second mold unit; and b2) step (S22) of maintaining a preset vulcanization temperature for a preset vulcanization time so as to induce a crosslinking reaction in the injected unvulcanized rubber; wherein, in the c) (S30) step, the electronic device mockup portion is unmolded from the rubber mount unit .
Method for determining a hysteresis curve of an electromagnetically driveable valve made of an electromagnet , an armature which is movable by the electromagnet and a valve body with means for converting a movement of the armature into an opening or closing of the valve , wherein the electromagnet and the armature are inserted into the valve body , wherein a magnetic hysteresis curve of a combination of the electromagnet with a test armature resting against said electromagnet is recorded before the electromagnet is inserted into the valve body , characterized in that the gradient m 1 of a first, substantially linear curve section of the hysteresis curve is determined in the unsaturated state and in that the gradient m 1 * of a curve section of a hysteresis curve , corresponding to the first curve section , of the fully assembled valve with an armature permanently resting against the electromagnet is determined from the gradient m 1 .
An apparatus for positioning a connecting rod relative to one or more components underlying a cylinder of an engine block in tandem with assembling a cylinder liner to the cylinder of the engine block , characterised in that the apparatus comprises: a holder mechanism for releasably holding a bottom end of the cylinder liner , wherein a portion (204/206) of the holder mechanism is configured to extend beyond the bottom end of the cylinder liner to define a groove disposed parallel to a circumference of the cylinder liner ; a link for pivotally connecting the cylinder liner to the connecting rod , the link comprising: a first end defining a pin slidably engaged with the groove of the holder mechanism ; and a second end distal from the first end , the second end defining an opening therethrough, the opening configured to facilitate insertion of a fastener for releasably securing the link to a bottom end of the connecting rod . a holder mechanism for releasably holding a bottom end of the cylinder liner , wherein a portion (204/206) of the holder mechanism is configured to extend beyond the bottom end of the cylinder liner to define a groove disposed parallel to a circumference of the cylinder liner ; a link for pivotally connecting the cylinder liner to the connecting rod , the link comprising: a first end defining a pin slidably engaged with the groove of the holder mechanism ; and a second end distal from the first end , the second end defining an opening therethrough, the opening configured to facilitate insertion of a fastener for releasably securing the link to a bottom end of the connecting rod . a first end defining a pin slidably engaged with the groove of the holder mechanism ; and a second end distal from the first end , the second end defining an opening therethrough, the opening configured to facilitate insertion of a fastener for releasably securing the link to a bottom end of the connecting rod .
A facility for heat-shrinking sleeves made of a heat-shrinkable material inserted onto supports, such as containers, comprising: - an enclosure , - means for heating by steam arranged in the enclosure, - water steam generation means for supplying the heating means with steam, - at least one conveyor for carrying the supports through the enclosure between an intake of the enclosure and an output of the enclosure, in the facility the steam-generation means comprises an adjustment means suitable for controlling the steam-generation means according to at least one measurement of the temperature prevailing in the enclosure such as to make the measured temperature tend towards a given set temperature, wherein the temperature is measured in a predetermined area of the enclosure , and adjustment means are arranged to control the steam generation means such as to make the temperature in the predetermined area tend towards the given set temperature, wherein the facility comprise means be capable of measuring and controlling a temperature prevailing in at least two different predetermined areas of the enclosure , wherein adjustment means comprises a plurality of temperature sensors mounted in the enclosure and capable of each measuring a temperature prevailing in a different predetermined area of the enclosure , the facility being characterized in that said sensors are arranged at different heights in the enclosure. - an enclosure , - means for heating by steam arranged in the enclosure, - water steam generation means for supplying the heating means with steam, - at least one conveyor for carrying the supports through the enclosure between an intake of the enclosure and an output of the enclosure,
A pipe processing machine for cutting pipes or profiles using a laser beam, comprising a machine bed , a feed station provided on the machine bed for feeding pipes or profiles to be processed along an X-axis , a push-through chuck through which the pipe or profile is pushed to a cutting head , the cutting head being arranged movably along a Y-axis running perpendicular to the X-axis and along a Z-axis running perpendicular to the Y-axis , characterized in that an axis support is arranged on the machine bed , on said axis support the cutting head is movably mounted and the push-through chuck is arranged, wherein the machine bed is formed in one piece with the axis support .
Bursting device for high-voltage apparatus , wherein the bursting device comprises at least one cover which closes an opening , which is formed in a wall of the high-voltage apparatus and has an encircling edge , wherein the bursting device comprises a burst plug as the cover, which has an outer surface and an inner surface which faces the high-voltage apparatus ; wherein the inner surface of the burst plug has at least one mounting block ; and wherein a shear pin as part of the bursting device is seated in the at least one mounting block , wherein the shear pin is divided into a first section and a second section and the first section of the shear pin projects into the at least one mounting block and the second section of the shear pin is arranged below the encircling edge of the opening ; wherein the shear pin breaks from a defined pressure level in the high-voltage apparatus and wherein the burst plug has an encircling flange section which, when mounted as intended, rests on an encircling step of the opening .
An apparatus for controlling an internal combustion engine mounted on a vehicle, comprising: an engine speed detector (62, 66d, S10) that detects speed (NE) of the engine; an ignition timing calculator (66d, S10) that calculates an ignition timing of the engine based on at least the detected engine speed; a detector (66d, S12, S12a, S56, S100 to S116) that detects a throttle opening value (TH) or an intake pressure bottom value (PMBTM) in an intake stroke of the engine; and an ignition controller that controls the ignition timing to be the calculated timing (S34, S38), controls the ignition timing to be a retarded timing than the calculated timing when the detected throttle opening value (TH) or the detected intake pressure bottom value (PMBTM) is equal to or greater than a threshold value (THHDIGINT1, PMHDIGINT 1) (S14 to S28, S34 to S50, S18a to S28a, S42a, S44a), and controls the ignition timing to be a more retarded timing than the retarded timing when the detected throttle opening value (TH) or the detected intake pressure bottom value (PMBTM) is equal to or greater than a second threshold value (THHDIGINT2, PMHDIGINT2) , which is set greater than the threshold value (THHDIGINT1, PMHDIGINT 1) (CPU 66d, S14 to S22, S34 to S42, S50, S18a to S22a, S42a). an engine speed detector (62, 66d, S10) that detects speed (NE) of the engine; an ignition timing calculator (66d, S10) that calculates an ignition timing of the engine based on at least the detected engine speed; a detector (66d, S12, S12a, S56, S100 to S116) that detects a throttle opening value (TH) or an intake pressure bottom value (PMBTM) in an intake stroke of the engine; and an ignition controller that controls the ignition timing to be the calculated timing (S34, S38), controls the ignition timing to be a retarded timing than the calculated timing when the detected throttle opening value (TH) or the detected intake pressure bottom value (PMBTM) is equal to or greater than a threshold value (THHDIGINT1, PMHDIGINT 1) (S14 to S28, S34 to S50, S18a to S28a, S42a, S44a), and controls the ignition timing to be a more retarded timing than the retarded timing when the detected throttle opening value (TH) or the detected intake pressure bottom value (PMBTM) is equal to or greater than a second threshold value (THHDIGINT2, PMHDIGINT2) , which is set greater than the threshold value (THHDIGINT1, PMHDIGINT 1) (CPU 66d, S14 to S22, S34 to S42, S50, S18a to S22a, S42a).