mhurhangee/ep-ind-claims huggingface dataset:
A fuel heating system for a gas turbine system, the fuel heating system comprising: a boiler for generating steam; a heat recovery steam generator (HRSG) independent of the boiler; a single fuel heat exchanger including a first passage for fluidly communicating a fuel therethrough and a second passage in thermal communication with the first passage for fluidly communicating a heating medium therethrough to heat the fuel, the single fuel heat exchanger structured to operate using steam or water as the heating medium; and a control valve system fluidly interconnecting the HRSG, the boiler and the single fuel heat exchanger and configured to selectively deliver the heating medium to the second passage of the single fuel heat exchanger as one of: the steam from the boiler and the hot feedwater from the HRSG. a boiler for generating steam; a heat recovery steam generator (HRSG) independent of the boiler; a single fuel heat exchanger including a first passage for fluidly communicating a fuel therethrough and a second passage in thermal communication with the first passage for fluidly communicating a heating medium therethrough to heat the fuel, the single fuel heat exchanger structured to operate using steam or water as the heating medium; and a control valve system fluidly interconnecting the HRSG, the boiler and the single fuel heat exchanger and configured to selectively deliver the heating medium to the second passage of the single fuel heat exchanger as one of: the steam from the boiler and the hot feedwater from the HRSG.
A marine propulsion system comprising: a plurality of marine propulsion devices (2, 2a, 2b), each of the plurality of marine propulsion devices (2, 2a, 2b) including a propeller shaft, an engine (11a, 11b), an electric motor (12a, 12b), a power transmission mechanism, an inverter (8a, 8b), and a controller (6a, 6b), the power transmission mechanism is configured to transmit mechanical power to the propeller shaft from at least one of the engine (11a, 11b) and the electric motor (12a, 12b), the inverter (8a, 8b) being configured to output electric power inputted thereto to the electric motor (12a, 12b) after converting the electric power, the controller (6a, 6b) being configured to determine whether or not entrained rotation of the electric motor (12a, 12b) occurs and being configured to execute protection control for protecting the inverter (8a, 8b) when the controller (6a, 6b) determines that entrained rotation of the electric motor (12a, 12b) occurs, wherein the each of the plurality of marine propulsion devices (2, 2a, 2b) further includes a cooling water passage and an electric water pump (19a, 19b), the cooling water passage connected to the inverter (8a, 8b), the electric water pump (19a, 19b) connected to the cooling water passage, and the controller (6a, 6b) is configured to cool the inverter (8a, 8b) by driving the electric water pump (19a, 19b) as the protection control.
A tractor comprising: a three-point link mechanism that is coupled to a rear portion of a vehicle body so as to be able to swing upward and downward, and to which a work apparatus is to be attached so as to be able to move upward and downward; a hydraulic unit configured to perform a swing operation to swing the three-point link mechanism; a load receiving section configured to swing in response to a tow load being applied from the work apparatus when the work apparatus performs ground work while being towed by the vehicle body; and a link mechanism (31,32,34,35,36) configured to transmit an amount of operation for the swing operation to the hydraulic unit according to an amount of swing of the load receiving section, wherein the link mechanism includes, at a most upstream position, an interlocking swing arm configured to swing in conjunction with the swing of the load receiving section about a swing axis that is different from a swing axis of the load receiving section, the load receiving section is provided with a first part configured to press the interlocking swing arm, the interlocking swing arm is provided with a second part configured to come into contact with the first part so as to be pressed by the first part, and a contact position of the first part and the second part is changeable. a three-point link mechanism that is coupled to a rear portion of a vehicle body so as to be able to swing upward and downward, and to which a work apparatus is to be attached so as to be able to move upward and downward; a hydraulic unit configured to perform a swing operation to swing the three-point link mechanism; a load receiving section configured to swing in response to a tow load being applied from the work apparatus when the work apparatus performs ground work while being towed by the vehicle body; and a link mechanism (31,32,34,35,36) configured to transmit an amount of operation for the swing operation to the hydraulic unit according to an amount of swing of the load receiving section, wherein the link mechanism includes, at a most upstream position, an interlocking swing arm configured to swing in conjunction with the swing of the load receiving section about a swing axis that is different from a swing axis of the load receiving section, the load receiving section is provided with a first part configured to press the interlocking swing arm, the interlocking swing arm is provided with a second part configured to come into contact with the first part so as to be pressed by the first part, and a contact position of the first part and the second part is changeable.
Process for treating keratin fibres, such as the hair, using a packaging article comprising: i) an envelope defining at least one cavity, the envelope comprising water-soluble and/or liposoluble fibres, preferably water-soluble fibres; ii) at least one anhydrous oxidizing composition, preferably in paste or powder form, comprising at least one anhydrous chemical oxidizing agent, preferably in paste or powder form; it being understood that the oxidizing composition is in one of the cavities defined by the envelope i). i) an envelope defining at least one cavity, the envelope comprising water-soluble and/or liposoluble fibres, preferably water-soluble fibres; ii) at least one anhydrous oxidizing composition, preferably in paste or powder form, comprising at least one anhydrous chemical oxidizing agent, preferably in paste or powder form;
A method of operating by a User Equipment, UE, to communicate with a Base Station, BS, in a wireless communication system, the method comprising: determining a number of repetitions K to perform repeated uplink transmissions; performing the repeated uplink transmissions on consecutive time-domain resources within a time period among a plurality of time periods that are each associated with a respective Hybrid Automatic Repeat reQuest, HARQ, process identity, ID, wherein the repeated uplink transmissions are configured by the BS as grant-free uplink transmission and a HARQ process ID associated with the repeated uplink transmissions is determined based on a resource that an initial transmission of the repeated uplink transmissions is performed; and based on a number of transmission occasions being smaller than the number of repetitions K within the time period, terminating the repeated uplink transmissions at the end of the time period, wherein a number of the repeated uplink transmissions does not reach the number of repetitions K at the end of the time period. determining a number of repetitions K to perform repeated uplink transmissions; performing the repeated uplink transmissions on consecutive time-domain resources within a time period among a plurality of time periods that are each associated with a respective Hybrid Automatic Repeat reQuest, HARQ, process identity, ID, wherein the repeated uplink transmissions are configured by the BS as grant-free uplink transmission and a HARQ process ID associated with the repeated uplink transmissions is determined based on a resource that an initial transmission of the repeated uplink transmissions is performed; and based on a number of transmission occasions being smaller than the number of repetitions K within the time period, terminating the repeated uplink transmissions at the end of the time period, wherein a number of the repeated uplink transmissions does not reach the number of repetitions K at the end of the time period.
A method for manufacturing a light emitting diode apparatus, the method comprising: forming a plurality of colour filters (20-1, 20-2, 20-3) on a glass layer; forming a plurality of light leakage preventing films on the glass layer in a space between the plurality of colour filters; etching the plurality of light leakage preventing films (50-1, 50-2, 50-3) to a first height; and etching a remaining area, excluding a predetermined area of the plurality of light leakage preventing films, to a second height shorter than the first height and forming the plurality of light leakage preventing films to have a shape in which the predetermined area is protruded upward; forming a plurality of conductive materials (60-1, 60-2, 60-3, 60-4, 60-5, 60-6) on a side of each of the plurality of light leakage preventing films opposite to the glass layer; and bonding a plurality of light emitting diodes (10-1, 10-2, 10-3) with the plurality of conductive materials to correspond to the plurality of colour filters, respectively. forming a plurality of colour filters (20-1, 20-2, 20-3) on a glass layer; forming a plurality of light leakage preventing films on the glass layer in a space between the plurality of colour filters; etching the plurality of light leakage preventing films (50-1, 50-2, 50-3) to a first height; and etching a remaining area, excluding a predetermined area of the plurality of light leakage preventing films, to a second height shorter than the first height and forming the plurality of light leakage preventing films to have a shape in which the predetermined area is protruded upward; forming a plurality of conductive materials (60-1, 60-2, 60-3, 60-4, 60-5, 60-6) on a side of each of the plurality of light leakage preventing films opposite to the glass layer; and bonding a plurality of light emitting diodes (10-1, 10-2, 10-3) with the plurality of conductive materials to correspond to the plurality of colour filters, respectively.
A non-aqueous electrolyte secondary battery comprising a power generating element containing a positive electrode obtained by forming, on the surface of a positive electrode current collector, a positive electrode active substance layer containing a positive electrode active substance, a negative electrode obtained by forming, on the surface of a negative electrode current collector, a negative electrode active substance layer containing a negative electrode active substance, and a separator, wherein the positive electrode active substance contains a spinel type lithium manganese composite oxide and a lithium nickel-based composite oxide, the mixing ratio of the lithium nickel-based composite oxide is 50 to 70% by weight relative to the total 100% by weight of the spinel type lithium manganese composite oxide and the lithium nickel-based composite oxide, the ratio of the total amount of the spinel type lithium manganese composite oxide and the lithium nickel-based composite oxide in 100% by weight of whole amount of the positive electrode active substance contained in the positive electrode active substance layer is 50% by weight or more, the internal resistance is 10 Ω/A·h or less at a SOC of 50%, and the ratio value of a projected area of the battery including a battery outer casing to rated capacity is 5 cm 2 /Ah or more and the rated capacity is 3 Ah or more; wherein the rated capacity is determined according to description paragraphs to and the internal resistance of the battery is determined according to paragraph of the description; characterized in that the weight of a single surface coating amount per unit area of the negative electrode active substance layer is 8.1 to 8.3 mg/cm 2.
Hair-care device comprising at least: - two jaws, a first and second, elongated and hinged to one another to be mobile between an open position and a closed position in which they define, by opposite working surfaces, a hair treatment region, - electrical heating elements associated with at least one of the working surfaces, the first jaw comprising at least one friction bar (10, 31) that is mobile relative to the adjacent working surface (S 1) and relative to the first jaw, and adapted to work with an opposite element so as to define, when the jaws are closed on a lock of hair, a traction region generating, when the device is moved on the lock of hair, a traction force greater than the traction force generated by the treatment region, characterised in that the device comprises compelling means that are interposed between the friction bar and the first jaw, and that extend the friction bar of the first jaw. - two jaws, a first and second, elongated and hinged to one another to be mobile between an open position and a closed position in which they define, by opposite working surfaces, a hair treatment region, - electrical heating elements associated with at least one of the working surfaces, the first jaw comprising at least one friction bar (10, 31) that is mobile relative to the adjacent working surface (S 1) and relative to the first jaw, and adapted to work with an opposite element so as to define, when the jaws are closed on a lock of hair, a traction region generating, when the device is moved on the lock of hair, a traction force greater than the traction force generated by the treatment region,
A process for recovering a titanium dioxide product from a titanium oxide-containing composition comprising: (a) adding to the titanium oxide-containing composition one or more alkali salts and an alumina-containing material to produce a charge; (b) oxidatively roasting the charge at a temperature in the range 700 to 875°C to produce a roasted mass; and (c) recovering the titanium oxide product from the roasted mass. (a) adding to the titanium oxide-containing composition one or more alkali salts and an alumina-containing material to produce a charge; (b) oxidatively roasting the charge at a temperature in the range 700 to 875°C to produce a roasted mass; and (c) recovering the titanium oxide product from the roasted mass.
A method for testing a workpiece by means of ultrasonic squirter technology, in which an ultrasound signal having a central beam is generated with an ultrasound probe (2, 12), which ultrasound signal by means of at least one liquid jet (8, 16) is coupled into the workpiece to be checked and the central beam together with the liquid jet (8, 16) is guided along a predetermined path on the surface of the workpiece, characterized in that the central beam together with the liquid jet (8, 16) and the workpiece are moved in opposite directions at least on a section of the path in such a manner that a multi-dimensional oppositely directed movement of the central beam and the workpiece takes place, wherein the oppositely directed movement takes place simultaneously and in the opposite direction.
A bioreactor characterized in that it comprises a light source, a light sensor facing said light source and a tank arranged between the light source and the light sensor intended to receive a culture medium comprising a cell culture of photosynthetic microorganisms, a controller connected to the light sensor to control the tank to a chosen cell culture concentration (x i) in the culture medium during a working period, said light source being capable of emitting an incident light with an input light intensity (I in) in the direction of the tank, and the light sensor being capable of measuring an output light intensity (I out) and of transmitting data relating to this intensity (I out) to the controller for controlling the tank, and a system for controlling the light source, arranged to set, for a period less than or equal to said working period, the input light intensity (I in) to a setpoint value enabling to induce cellular stress in at least some of said photosynthetic microorganisms, and wherein the system is also arranged to set said light to an input light intensity (I in) at a resting value lower than the setpoint value, and to switch between the resting value and the setpoint value during the working period, and wherein the system is also arranged to fix a first irradiation period for which the light is set to the input light intensity (I in) at the resting value and a second irradiation period for which the light is set to the setpoint value, the first irradiation period being greater than the second irradiation period, and to apply a succession of the first and second irradiation periods; and wherein the first and second irradiation periods are fixed such that the mean value of the input light intensity (I in) during the working period, calculated from the resting value and the setpoint value, is less than or equal to a third of said setpoint value.
Turbofan engine having - a core engine and at least one fan by means of which fluid is directed to a primary flow duct for the core engine as well as to a secondary flow duct of the turbofan engine, wherein the secondary flow duct is provided for an outer fluid flow that is guided past the core engine; and - at least one line (L1, L2) which is guided within a cavity of a cladding that is disposed in the secondary flow duct, characterized in that - the cladding has at least one overpressure door having at least one deformable hinge element (30, 30.1, 30.2), the overpressure door in the event of a pressure increasing beyond a threshold value in the cavity, while deforming said hinge element (30, 30.1, 30.2) is capable of being swung such that fluid can flow from the cavity of the cladding in the direction of the secondary flow duct through an opening that is released by the overpressure door swinging open; and - at least one opening mechanism is provided, by means of which in the event of a pressure increasing beyond the threshold value in the cavity a fixing mechanism of the overpressure door is released in order to permit the overpressure door to swing open. - a core engine and at least one fan by means of which fluid is directed to a primary flow duct for the core engine as well as to a secondary flow duct of the turbofan engine, wherein the secondary flow duct is provided for an outer fluid flow that is guided past the core engine; and - at least one line (L1, L2) which is guided within a cavity of a cladding that is disposed in the secondary flow duct, characterized in that - the cladding has at least one overpressure door having at least one deformable hinge element (30, 30.1, 30.2), the overpressure door in the event of a pressure increasing beyond a threshold value in the cavity, while deforming said hinge element (30, 30.1, 30.2) is capable of being swung such that fluid can flow from the cavity of the cladding in the direction of the secondary flow duct through an opening that is released by the overpressure door swinging open; and - at least one opening mechanism is provided, by means of which in the event of a pressure increasing beyond the threshold value in the cavity a fixing mechanism of the overpressure door is released in order to permit the overpressure door to swing open.
A control method for an HVAC system in a relatively large spatial place, wherein the HVAC system comprises an air handling unit, and the air handling unit is provided with a valve through which a fluid medium passes and a fan; and the method comprises: monitoring a return air temperature of air circulated back to the air handling unit; providing a return air temperature setpoint of the HVAC system; performing decoupling adjustment on one of the fan and the valve, and then adjusting the other of the fan and the valve so that the return air temperature is close to the return air temperature setpoint; wherein an opening degree adjustment of the valve is determined based on a supply air temperature of air leaving the air handling unit and a supply air temperature setpoint of the HVAC system; characterized in that: adjustment on the fan and the valve comprises decreasing the opening degree of the valve after decreasing a speed of the fan to a minimum value. monitoring a return air temperature of air circulated back to the air handling unit; providing a return air temperature setpoint of the HVAC system; performing decoupling adjustment on one of the fan and the valve, and then adjusting the other of the fan and the valve so that the return air temperature is close to the return air temperature setpoint; wherein an opening degree adjustment of the valve is determined based on a supply air temperature of air leaving the air handling unit and a supply air temperature setpoint of the HVAC system; characterized in that: adjustment on the fan and the valve comprises decreasing the opening degree of the valve after decreasing a speed of the fan to a minimum value.
A method for producing a ceramic green body molded into a predetermined shape, the method comprising: mixing a ceramic powder, an isocyanate, a polyol, a temperature-sensitive catalyst that exhibits a catalyst function for accelerating a urethane reaction between the isocyanate and the polyol within a specific temperature range, which includes an active temperature at which a catalyst-reaction speed becomes the maximum and which is higher than room temperature, the active temperature being within the range of 55 to 120°C, and a solvent, so as to prepare a ceramic slurry containing the ceramic powder, the unreacted isocyanate, the unreacted polyol, and the solvent, or a ceramic slurry further containing a urethane resin serving as a binder formed through the urethane reaction; molding the prepared ceramic slurry into a predetermined shape at room temperature; and forming the urethane resin through the urethane reaction between the unreacted isocyanate and the unreacted polyol in the molded product so as to solidify the molded product and drying the molded product so as to evaporate the solvent, in a state in which the molded product is kept to have the temperature within the specific temperature range through the application of heat to the molded product. mixing a ceramic powder, an isocyanate, a polyol, a temperature-sensitive catalyst that exhibits a catalyst function for accelerating a urethane reaction between the isocyanate and the polyol within a specific temperature range, which includes an active temperature at which a catalyst-reaction speed becomes the maximum and which is higher than room temperature, the active temperature being within the range of 55 to 120°C, and a solvent, so as to prepare a ceramic slurry containing the ceramic powder, the unreacted isocyanate, the unreacted polyol, and the solvent, or a ceramic slurry further containing a urethane resin serving as a binder formed through the urethane reaction; molding the prepared ceramic slurry into a predetermined shape at room temperature; and forming the urethane resin through the urethane reaction between the unreacted isocyanate and the unreacted polyol in the molded product so as to solidify the molded product and drying the molded product so as to evaporate the solvent, in a state in which the molded product is kept to have the temperature within the specific temperature range through the application of heat to the molded product.