mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a starting system for a motor vehicle, comprising the following steps: - detecting, using the starting system, locking of the motor vehicle and checking, using a monitoring device in the starting system, whether a portable code transmitter for the starting system is located within a monitoring region of the monitoring device; - deactivating a starting device of the starting system using a control device of the starting system if the portable code transmitter is not located within the monitoring region; - operating an operating element of the portable code transmitter and wirelessly transmitting, using the portable code transmitter, an unlocking signal, that initiates the unlocking of at least one door of the motor vehicle, and an identity signal, that comprises identity data; - receiving, by means of the motor vehicle-based starting system, the unlocking signal and the identity signal; - checking, using the control device, whether the identity data received with the identity signal match identity data stored in the starting system; and - activating the starting device using the control device if the identity data received with the identity signal match the identity data stored in the starting system. - detecting, using the starting system, locking of the motor vehicle and checking, using a monitoring device in the starting system, whether a portable code transmitter for the starting system is located within a monitoring region of the monitoring device; - deactivating a starting device of the starting system using a control device of the starting system if the portable code transmitter is not located within the monitoring region; - operating an operating element of the portable code transmitter and wirelessly transmitting, using the portable code transmitter, an unlocking signal, that initiates the unlocking of at least one door of the motor vehicle, and an identity signal, that comprises identity data; - receiving, by means of the motor vehicle-based starting system, the unlocking signal and the identity signal; - checking, using the control device, whether the identity data received with the identity signal match identity data stored in the starting system; and - activating the starting device using the control device if the identity data received with the identity signal match the identity data stored in the starting system.
Preparation method of the talcum product with high purity degree characterized in that it comprises the following steps: - preparing a suspension consisting of 10-20wt% of mineral talc and 80-90wt% of water, - homogenizing and heating the resulting suspension to a temperature of 50-70 °C, - adding 1-6 wt% of concentrated hydrocholic acid (37wt%) to the suspension under continuous stirring, - achieving a pH value of 3 to 5 and increasing the temperature up to 85 °C, - adding 1-5 wt% of concentrated sulfuric acid and maintaining the temperature up to 90 °C, - chilling the suspension to ambient temperature and separating the obtained sediment, - washing the obtained sediment with water and reaching a pH of 5 to 6, - drying the washed sediment at temperature of 140-160 °C. - preparing a suspension consisting of 10-20wt% of mineral talc and 80-90wt% of water, - homogenizing and heating the resulting suspension to a temperature of 50-70 °C, - adding 1-6 wt% of concentrated hydrocholic acid (37wt%) to the suspension under continuous stirring, - achieving a pH value of 3 to 5 and increasing the temperature up to 85 °C, - adding 1-5 wt% of concentrated sulfuric acid and maintaining the temperature up to 90 °C, - chilling the suspension to ambient temperature and separating the obtained sediment, - washing the obtained sediment with water and reaching a pH of 5 to 6, - drying the washed sediment at temperature of 140-160 °C.
Method of producing a consistent granular frozen mass of alcoholic and nonalcoholic beverages characterized in that the beverage under pressure of 1*10 5 Pa to 3*10 5 Pa (1 to 3 bars) is fed into the inner tube (20.1) of the freezing double-shell exchanger, on this inner tube (20.1) of the double-shell exchanger with beverage, the cold freezing glycol with temperature -12 to -16 °C circulating in the outer tube (20.2) of exchanger acts for 8 - 16 min., until the beverage inside the inner tube (20.1) freezes, subsequently the action of the cold freezing glycol on the inner tube (20.1) of the exchanger is stopped, subsequently the hot defrosting glycol with temperature +20 to +40 °C is fed into the outer tube (20.2) of the double-shell exchanger, its action will release the frozen beverage from the wall of the inner tube (20.1) of the double-shell exchanger after 10 - 30 seconds, after the release of the frozen beverage from the inner tube (20.1) of the double-shell exchanger the frozen beverage is broken into the granulated frozen mass.
A connecting device, comprising: a connecting member, a slider and a locking member; wherein the locking member comprises a limiting cylinder and a limiting button, the limiting button comprises a sliding portion and a transmission portion, and the limiting cylinder is provided with a receiving hole for receiving the transmission portion; wherein one end of the connecting member is provided with a fastening portion to be fitted with an external supporting device, and the other end of the connecting member is provided with a first sliding slot and a limiting slot for accommodating the limiting cylinder; wherein one end of the slider is provided with a second sliding slot slidably fitted with the first sliding slot and an accommodating hole for accommodating the limiting cylinder, a side wall of the slider is provided with a through hole which communicates with the accommodating hole and is configured to receive the transmission portion, and the through hole guides a sliding of the received transmission portion; wherein the other end of the slider is provided with a locking portion for fixing an external device; and characterized in that the receiving hole is provided on the limiting cylinder. a connecting member, a slider and a locking member; wherein the locking member comprises a limiting cylinder and a limiting button, the limiting button comprises a sliding portion and a transmission portion, and the limiting cylinder is provided with a receiving hole for receiving the transmission portion; wherein one end of the connecting member is provided with a fastening portion to be fitted with an external supporting device, and the other end of the connecting member is provided with a first sliding slot and a limiting slot for accommodating the limiting cylinder; wherein one end of the slider is provided with a second sliding slot slidably fitted with the first sliding slot and an accommodating hole for accommodating the limiting cylinder, a side wall of the slider is provided with a through hole which communicates with the accommodating hole and is configured to receive the transmission portion, and the through hole guides a sliding of the received transmission portion; wherein the other end of the slider is provided with a locking portion for fixing an external device; and characterized in that the receiving hole is provided on the limiting cylinder.
A method of making a composite organic/inorganic layer for an organic electronic device, comprising: having a solution comprising a vanadium or molybdenum alkoxide and a charge transport compound that includes more than one hydroxyl groups; depositing the solution onto a surface to form a composite organic/inorganic layer; and reacting the charge transport compound with the alkoxide to form a covalently bonded composite organic/inorganic layer. having a solution comprising a vanadium or molybdenum alkoxide and a charge transport compound that includes more than one hydroxyl groups; depositing the solution onto a surface to form a composite organic/inorganic layer; and reacting the charge transport compound with the alkoxide to form a covalently bonded composite organic/inorganic layer.
A method of controlling an applicator apparatus including an applicator pad for applying a label to an item, an actuator (180, 400, 500) for positioning the applicator pad in a desired position relative to an item, and a control system for controlling movement of the actuator (180, 400, 500), the control system including at least one motor, the method including determining a desired position of the applicator pad, determining a required speed of the actuator (180, 400, 500) to achieve the desired position of the applicator pad, taking into account at least one physical parameter of the actuator (180, 400, 500) and/or the applicator pad, and calculating a motor torque required to achieve the desired position of the applicator pad, taking into account a current position of the applicator pad.
An aircraft fuel tank inerting system for a fixed wing aircraft including at least one main fuel tank in the wing and an associated surge tank, wherein the inerting system comprises: a source of inerting fluid, a flow passage for supplying said inerting fluid to said main fuel tank and discharging it into said main fuel tank through at least one discharge outlet, and characterised in that said flow passage includes a pressure relief arrangement (26; 36) adapted to discharge inerting fluid passing along the flow passage into said surge tank if the pressure in said main fuel tank exceeds a predetermined threshold such that inerting fluid may be safely vented to atmosphere via the surge tank without over-pressurising the main fuel tank. a source of inerting fluid, a flow passage for supplying said inerting fluid to said main fuel tank and discharging it into said main fuel tank through at least one discharge outlet, and characterised in that said flow passage includes a pressure relief arrangement (26; 36) adapted to discharge inerting fluid passing along the flow passage into said surge tank if the pressure in said main fuel tank exceeds a predetermined threshold such that inerting fluid may be safely vented to atmosphere via the surge tank without over-pressurising the main fuel tank.
A method of bonding two members to each other, wherein an aluminum alloy material is defined as one of said members to be bonded, and wherein a) either an aluminum alloy material is defined as the other member to be bonded, wherein the aluminum alloy material for said one member and the aluminum alloy material for the other member are composed of an aluminum alloy containing Mg of not more than 0.5 mass %, or b) a pure aluminum material is defined as the other member to be bonded, wherein the aluminum alloy material for said one member is composed of an aluminum alloy containing Mg of not more than 0.5 mass %, characterized in that a bonding process is carried out in a non-oxidizing atmosphere at a temperature, at which a ratio of a mass of liquid phases generated in the aluminum alloy material defined as said one member to the total mass of the aluminum alloy material of said one member falls within a range from 5 % to 35 %, under conditions that there is either a coated fluoride-based flux or a coated chloride-based flux between both said members to be bonded. a) either an aluminum alloy material is defined as the other member to be bonded, wherein the aluminum alloy material for said one member and the aluminum alloy material for the other member are composed of an aluminum alloy containing Mg of not more than 0.5 mass %, or b) a pure aluminum material is defined as the other member to be bonded, wherein the aluminum alloy material for said one member is composed of an aluminum alloy containing Mg of not more than 0.5 mass %,
A method for synchronizing a graphical program generated in an off-line simulation environment and a robot program, wherein the graphical program includes a graphical 3D representation of robot motions along a path including 3D points (p1, p2, p3) and actions given in a sequence, the actions contain events that will occur along the path, and the robot program includes a sequence of textual instructions for robot motions and actions, characterized in that the method comprises: receiving information on which of the programs is to remain unchanged during the synchronization, in the following called a leader program for the synchronization, and which of the programs to be modified according to the program that is selected as the leader program, in the following called a follower program, converting the sequence of 3D points and actions of the graphical program into a first sequence of tokens including data and instructions for motions and actions contained in the graphical program, converting the motion content of the robot program into a second sequence of tokens including data and instructions for motions and actions contained in the robot program, comparing the first and second sequences of tokens and based thereon generating modification commands in dependence on which program is the leader and which is the follower, and editing the follower program based on the generated modification commands so that the token sequence of the follower matches the sequence of the leader. receiving information on which of the programs is to remain unchanged during the synchronization, in the following called a leader program for the synchronization, and which of the programs to be modified according to the program that is selected as the leader program, in the following called a follower program, converting the sequence of 3D points and actions of the graphical program into a first sequence of tokens including data and instructions for motions and actions contained in the graphical program, converting the motion content of the robot program into a second sequence of tokens including data and instructions for motions and actions contained in the robot program, comparing the first and second sequences of tokens and based thereon generating modification commands in dependence on which program is the leader and which is the follower, and editing the follower program based on the generated modification commands so that the token sequence of the follower matches the sequence of the leader.
A method, comprising: modulating information onto frequency components of a signal, the resulting modulated signal including at least some redundancy in frequency according to a redundant coding scheme enabling a portion of the information modulated onto selected frequency components to be recovered from fewer than all of the selected frequency components; and controlling the spectrum of the modulated signal, including enabling the amplitude of at least some frequency components of the modulated signal to be set below a predetermined amplitude used for modulating the information, wherein an amplitude mask technique is used with the redundant coding scheme that spreads the portion of the information over the selected frequency components. modulating information onto frequency components of a signal, the resulting modulated signal including at least some redundancy in frequency according to a redundant coding scheme enabling a portion of the information modulated onto selected frequency components to be recovered from fewer than all of the selected frequency components; and controlling the spectrum of the modulated signal, including enabling the amplitude of at least some frequency components of the modulated signal to be set below a predetermined amplitude used for modulating the information, wherein an amplitude mask technique is used with the redundant coding scheme that spreads the portion of the information over the selected frequency components.
A method for visualizing safety functions of an industrial robot, the method comprising the steps of: - defining at least one geometric range (60, 160, 320); - defining for each of the at least one geometric range (60, 160, 320) at least one safety function applicable within the geometric range (60, 160, 320), wherein each said safety function is a user-configured definition affecting the functionality of the robot; - visibly illustrating each of the at least one geometric range (60, 160, 320) to thereby provide at least one geometric range image (30, 130, 230, 240, 250, 260, 270, 280); characterized in - visibly illustrating at each of the at least one geometric range image (30, 130, 230, 240, 250, 260, 270, 280) at least one safety function applicable within the respective geometric range (60, 160, 320). - defining at least one geometric range (60, 160, 320); - defining for each of the at least one geometric range (60, 160, 320) at least one safety function applicable within the geometric range (60, 160, 320), wherein each said safety function is a user-configured definition affecting the functionality of the robot; - visibly illustrating each of the at least one geometric range (60, 160, 320) to thereby provide at least one geometric range image (30, 130, 230, 240, 250, 260, 270, 280); characterized in - visibly illustrating at each of the at least one geometric range image (30, 130, 230, 240, 250, 260, 270, 280) at least one safety function applicable within the respective geometric range (60, 160, 320).
Process for treating ammonium-containing wastewater in a deammonification facility having at least one activation tank, in which first ammonium is reacted to form nitrite by means of aerobically oxidizing bacteria and then ammonium and nitrite are reacted to form elemental nitrogen by means of anaerobically ammonium-oxidizing bacteria (anammox), in particular by means of Planctomycetes, and in which sludge from the activation tank is fed to a hydrocyclone and therein is separated into a dense fraction which predominantly contains the anaerobically ammonium-oxidizing bacteria (anammox), and into a light fraction, wherein the dense fraction is returned to the activation tank characterized in that activated sludge from the activation tank is introduced at least intermittently into the hydrocyclone and in that, after the separation of the activated sludge in the hydrocyclone both the dense fraction and the light fraction which predominantly contains the aerobically ammonium-oxidizing bacteria are returned to the at least one activation tank of the facility, wherein during the separation of the activated sludge in the hydrocyclone, the anaerobically ammonium-oxidizing bacteria (anammox) having a higher density than the aerobically ammonium-oxidizing bacteria are sedimented on a roughened internal wall surface of the hydrocyclone by the centrifugal and hydrodynamic forces in the hydrocyclone and abrasive forces are generated by a relative motion between the rapidly moving anaerobically ammonium-oxidizing bacteria (anammox) and the stationary roughened internal wall surface of the hydrocyclone, via which abrasive forces an organic or inorganic plaque present on the ammonium-oxidizing bacteria (anammox), in particular Planctomycetes granules, is at least partly removed.
Roof underlay sheet or roof lining sheet for an inclined roof comprising a surface that is impervious to water for draining water, wherein the surface comprises a plurality of elongated projections that are arranged in parallel with one another at least in portions, which are designed to be so soft that they are adaptable to a contour of a rough surface of a counter batten or other object that contacts the projections in order to produce rain-tight contact with the surface, and which form channels that extend in a straight line parallel to one another and that are separated from one another by means of the projections for receiving water and draining same in a directed manner along the slope of the inclined roof, wherein the projections extend in a direction over substantially the entire roof underlay sheet or roof lining sheet, characterised in that an edge region of the roof underlay sheet or roof lining sheet is designed to be free from projections, wherein the edge region is broader than a distance between adjacent projections on the remaining surface of the roof underlay sheet or roof lining sheet.
Method for the decontamination of polluted materials, characterized in that it comprises the operations consisting of: loading the materials to be treated into a chamber capable of being placed under high vacuum; placing the chamber at a first vacuum below 20 mbar, and then injecting an inerting gas, in particular nitrogen, until the pressure in the chamber increases to above approximately 950 mbar; heating the contents of the chamber, under forced convection, to a temperature that is maintained at less than or equal to approximately 220°C, while: evacuation is again carried out, to a residual pressure of approximately 0.1 mbar, while the heating is continued; then an inert gas, in particular nitrogen, is injected, until the pressure increases to approximately 950 mbar; and then cooling the contents of the chamber under forced convection; and unloading the thus-decontaminated materials from the chamber, while the extracted polluting/contaminating products have been removed in the form of a distillate. loading the materials to be treated into a chamber capable of being placed under high vacuum; placing the chamber at a first vacuum below 20 mbar, and then injecting an inerting gas, in particular nitrogen, until the pressure in the chamber increases to above approximately 950 mbar; heating the contents of the chamber, under forced convection, to a temperature that is maintained at less than or equal to approximately 220°C, while: evacuation is again carried out, to a residual pressure of approximately 0.1 mbar, while the heating is continued; then an inert gas, in particular nitrogen, is injected, until the pressure increases to approximately 950 mbar; and then evacuation is again carried out, to a residual pressure of approximately 0.1 mbar, while the heating is continued; then an inert gas, in particular nitrogen, is injected, until the pressure increases to approximately 950 mbar; and then cooling the contents of the chamber under forced convection; and unloading the thus-decontaminated materials from the chamber, while the extracted polluting/contaminating products have been removed in the form of a distillate.
A laundry treating apparatus comprising: a cabinet; a drum accommodated in the cabinet to accommodate laundry therein; a circulating flow passage provided to re-supply air discharged from the drum into the drum; a heat-exchanger disposed inside the circulating flow passage to condense moisture contained in the air or heat the air; a steam supplier provided to generate steam by heating water; and a steam discharge pipe configured to supply the steam generated from the steam supplier into the drum, characterized in that, the laundry treating apparatus further comprises a pipe (910, 930) provided to communicate between the steam supplier and the heat-exchanger, wherein heated water or steam is supplied to the heat-exchanger through the pipe (910, 930) communicating with the steam supplier. a cabinet; a drum accommodated in the cabinet to accommodate laundry therein; a circulating flow passage provided to re-supply air discharged from the drum into the drum; a heat-exchanger disposed inside the circulating flow passage to condense moisture contained in the air or heat the air; a steam supplier provided to generate steam by heating water; and a steam discharge pipe configured to supply the steam generated from the steam supplier into the drum, characterized in that, the laundry treating apparatus further comprises a pipe (910, 930) provided to communicate between the steam supplier and the heat-exchanger, wherein heated water or steam is supplied to the heat-exchanger through the pipe (910, 930) communicating with the steam supplier.