mhurhangee/ep-ind-claims huggingface dataset:
Process for manufacturing expanded moulded polystyrene objects having a density chosen from a range of from 40 to 190 g/l, characterised in that it employs an expandable polystyrene composition in the form of expandable beads, containing by weight 100 parts of polymer of styrene, from 2.2 to less than 4.0 parts of at least one blowing agent and up to 0.4 parts of at least one plasticising agent, and in that it comprises the following stages: (i) a pre-expansion stage carried out by heating the expandable beads, so as to form pre-expanded beads with a bulk density measured according to the European standard "EN 1602" chosen from a range of from 40 to 190 g/l, (ii) a stabilisation stage carried out by contacting the pre-expanded beads with a gaseous medium at a temperature of from 0 to 40°C, under an absolute pressure of from 50 to 160 kPa, for a period of from 6 to 48 hours and (iii) a moulding stage by introducing and heating the beads thus stabilised into a mould, so as to weld the beads to one another and to form the medium-density expanded moulded polystyrene objects, characterised in that it comprises a single pre-expansion stage followed then by the stabilisation stage and by the moulding stage. (i) a pre-expansion stage carried out by heating the expandable beads, so as to form pre-expanded beads with a bulk density measured according to the European standard "EN 1602" chosen from a range of from 40 to 190 g/l, (ii) a stabilisation stage carried out by contacting the pre-expanded beads with a gaseous medium at a temperature of from 0 to 40°C, under an absolute pressure of from 50 to 160 kPa, for a period of from 6 to 48 hours and (iii) a moulding stage by introducing and heating the beads thus stabilised into a mould, so as to weld the beads to one another and to form the medium-density expanded moulded polystyrene objects,
An adjuvant for a composition based on a hydraulic binder, such as a cement or a refractory concrete composition, comprising, by weight, as compared to its total weight, at least: (a) from 20% to 70% of at least one aluminum organic acid, (b) from 3% to 20% of at least one deflocculant chosen from a carboxylic acid polymer, a carboxylic acid, a salt thereof, or one of their mixtures, and, (c) from 7% to 44% of at least one mineral oxide. (a) from 20% to 70% of at least one aluminum organic acid, (b) from 3% to 20% of at least one deflocculant chosen from a carboxylic acid polymer, a carboxylic acid, a salt thereof, or one of their mixtures, and, (c) from 7% to 44% of at least one mineral oxide.
A turbine for a turbomachine, the turbine comprising: a nozzle comprising: an inner platform; an outer platform spaced apart from the inner platform along a radial direction, the outer platform extending along an axial direction between a forward sidewall and an aft sidewall; and an airfoil extending between the inner platform and the outer platform, the airfoil comprising a leading edge at a forward end of the airfoil and a trailing edge at an aft end of the airfoil; the turbine being characterised in that it further comprises shroud extending between a forward end and an aft end, the forward end of the shroud adjacent to the aft sidewall of the outer platform; a cavity defined by an axial clearance between the nozzle and the shroud; and a sealing interface within the cavity, the sealing interface radially outward of the outer platform of the nozzle and axially forward of the aft sidewall of the outer platform of the nozzle. an inner platform; an outer platform spaced apart from the inner platform along a radial direction, the outer platform extending along an axial direction between a forward sidewall and an aft sidewall; and an airfoil extending between the inner platform and the outer platform, the airfoil comprising a leading edge at a forward end of the airfoil and a trailing edge at an aft end of the airfoil; the turbine being characterised in that it further comprises shroud extending between a forward end and an aft end, the forward end of the shroud adjacent to the aft sidewall of the outer platform; a cavity defined by an axial clearance between the nozzle and the shroud; and a sealing interface within the cavity, the sealing interface radially outward of the outer platform of the nozzle and axially forward of the aft sidewall of the outer platform of the nozzle.
An Fe-based amorphous alloy, compositional formula of which is (Fe 100-a-b-c-d-e Cr a P b C c B d Si e (a, b, c, d, and e are in terms of at%)), wherein 0 at% ≤ a ≤ 1.9 at%, 1.7 at% ≤ b ≤ 8.0 at%, 0 at% ≤ e ≤ 1.0 at%, and an Fe content (100-a-b-c-d-e) is 77 at% or more, 19 at % ≤ b + c + d + e ≤ 21.1 at %, 0.08 ≤ b / b + c + d ≤ 0.43, 0.06 ≤ c / c + d ≤ 0.87, and the Fe-based amorphous alloy has a glass transition point (Tg).
A method characterized by comprising: detecting that a pre-empting communication is pre-empting a pre-empted communication, wherein the pre-empting communication and the pre-empted communication are different concurrent communications both having the same end user apparatus as one of participants; processing the pre-empting communication for a user of the end user apparatus so that the user is an active participant of the pre-empting communication, the active participant of a communication hearing what other participants in the communication say and can in turn speak; buffering (406, 420), in response to the detecting, the pre-empted communication to a buffer for a later replay in the end user apparatus, wherein during the buffering the user is not an active participant in the pre-empted communication; determining a safety interval for the pre-empting communication, the safety interval determining a non-activity time limit for the pre-empting communication; starting (408, 422) monitoring of an expiry of the safety interval after detecting an end of the pre-empting communication; and stopping the monitoring of the expiry of the safety interval in response to detecting a restart of the pre-empting communication; and determining that the pre-empting communication has ended in response to the expiry of the safety interval, and if the pre-empted communication is still a communication continuing between other participants, starting processing said communication for the user so that the user joins the communication as an active participant of the communication. detecting that a pre-empting communication is pre-empting a pre-empted communication, wherein the pre-empting communication and the pre-empted communication are different concurrent communications both having the same end user apparatus as one of participants; processing the pre-empting communication for a user of the end user apparatus so that the user is an active participant of the pre-empting communication, the active participant of a communication hearing what other participants in the communication say and can in turn speak; buffering (406, 420), in response to the detecting, the pre-empted communication to a buffer for a later replay in the end user apparatus, wherein during the buffering the user is not an active participant in the pre-empted communication; determining a safety interval for the pre-empting communication, the safety interval determining a non-activity time limit for the pre-empting communication; starting (408, 422) monitoring of an expiry of the safety interval after detecting an end of the pre-empting communication; and stopping the monitoring of the expiry of the safety interval in response to detecting a restart of the pre-empting communication; and determining that the pre-empting communication has ended in response to the expiry of the safety interval, and if the pre-empted communication is still a communication continuing between other participants, starting processing said communication for the user so that the user joins the communication as an active participant of the communication.
Transporting device (1, 1') for a load supporting element taking on a load, which load supporting element is applicable to loading and unloading of vehicles, comprising an arrangement for remote-controlled operation, an electric drive for steering, moving and lifting the load supporting element, a control unit and a power supply and a supporting part for accommodating the load supporting element, wherein drive, control unit and power supply are disposed within a space area of the supporting part and the supporting part completely underrides the load supporting element, wherein the supporting part has a U-shaped design in cross section and the individual functional members are housed in the provided space, and in that the transporting device (1, 1') is applicable to be employed in pairs for transportation of a load supporting element.
A tillage tool arrangement for being attached to a mouldboard plough (1, 1a) provided with at least one mouldboard plough body for turning soil, characterized in that the tillage tool arrangement comprises: at least one tillage tool unit; and a bar (21, 21a) for adjustably connecting the tillage tool unit to the mouldboard plough body; wherein the bar (21, 21a), when connecting the tillage tool unit to the mouldboard plough body, extends upwards from the mouldboard plough body such that, when the mouldboard plough body is in operative, soil-turning state, the at least one tillage tool unit is in position to even out the soil turned by the mouldboard plough body. at least one tillage tool unit; and a bar (21, 21a) for adjustably connecting the tillage tool unit to the mouldboard plough body; wherein the bar (21, 21a), when connecting the tillage tool unit to the mouldboard plough body, extends upwards from the mouldboard plough body such that, when the mouldboard plough body is in operative, soil-turning state, the at least one tillage tool unit is in position to even out the soil turned by the mouldboard plough body.
A drum washing machine comprising: a cabinet forming an external appearance; a tub provided inside the cabinet to accommodate to washing water; a drum rotatably installed inside the tub; a door installed on the cabinet to open and close an opening formed in the tub; a diaphragm installed between the tub and the door to seal a space between the tub and the door; and a nozzle unit installed at an upper portion of the diaphragm such that interference with the door is avoided characterized in that the nozzle unit is configured to receive water directly from an external water-supply source, which is provided outside the cabinet, and to spray water to inside the drum during a washing cycle and a rinsing cycle, wherein the nozzle unit is a variable-type nozzle unit that can adjust a water jetting type of the nozzle unit according to a displacement of a linear actuator that is installed inside the nozzle unit and moves back and forth, so as to adjust the water jetting type based on the level of protrusion that varies with a back and forth movement of a nozzle installed on the front surface of the linear actuator as the linear actuator moves back and forth. a cabinet forming an external appearance; a tub provided inside the cabinet to accommodate to washing water; a drum rotatably installed inside the tub; a door installed on the cabinet to open and close an opening formed in the tub; a diaphragm installed between the tub and the door to seal a space between the tub and the door; and a nozzle unit installed at an upper portion of the diaphragm such that interference with the door is avoided
A method for configuring an engine control unit characterized by the following steps: developing a functional block; testing the functional block; compiling a controller code and calibration dataset; and downloading a model predictive control controller, having an algorithm and dataset, to an engine control unit; iterating on a calibration while working on an engine of the engine control unit; evaluating the calibration; wherein if the calibration is not acceptable, then returning to compiling the controller code and dataset, downloading the model predictive control controller having the algorithm and dataset to the engine control unit, iterating on the calibration and evaluating the calibration until the calibration is acceptable. developing a functional block; testing the functional block; compiling a controller code and calibration dataset; and downloading a model predictive control controller, having an algorithm and dataset, to an engine control unit; iterating on a calibration while working on an engine of the engine control unit; evaluating the calibration; wherein if the calibration is not acceptable, then returning to compiling the controller code and dataset, downloading the model predictive control controller having the algorithm and dataset to the engine control unit, iterating on the calibration and evaluating the calibration until the calibration is acceptable.
A method for extracting organic components having a hydrocarbon, wherein the method comprises steps of: bringing an organic component extraction element into contact with liquid and / or gas containing organic components having a hydrocarbon to be extracted, wherein the organic component extracting element comprises at least one polymer selected from polyethyleneglycol, polyorganosiloxane, polyimide, polymethylvinylsilane and polyacrylate, preferably said polyorganosiloxane is polydimethylsiloxane, wherein said polymer is swelled with at least one solvent selected from dichloromethane, chloroform, diethyl ether, ethyl propyl ether, diisopropyl ether, dipropyl ether, methyl tert-butyl ether, diethyl ketone, methyl propyl ketone, methyl isopropyl ketone, ethyl propyl ketone, methyl isobutyl ketone, pentane, isohexane, hexane, cyclohexane, heptane, isoheptane, isooctane, octane, carbon disulfide, diisopropylamine, trimethylamine, benzene, toluene and xylene, incorporating said organic components having a hydrocarbon into said element, taking out said element in which said organic components having a hydrocarbon were incorporated, separating said organic components having a hydrocarbon from said element. bringing an organic component extraction element into contact with liquid and / or gas containing organic components having a hydrocarbon to be extracted, wherein the organic component extracting element comprises at least one polymer selected from polyethyleneglycol, polyorganosiloxane, polyimide, polymethylvinylsilane and polyacrylate, preferably said polyorganosiloxane is polydimethylsiloxane, wherein said polymer is swelled with at least one solvent selected from dichloromethane, chloroform, diethyl ether, ethyl propyl ether, diisopropyl ether, dipropyl ether, methyl tert-butyl ether, diethyl ketone, methyl propyl ketone, methyl isopropyl ketone, ethyl propyl ketone, methyl isobutyl ketone, pentane, isohexane, hexane, cyclohexane, heptane, isoheptane, isooctane, octane, carbon disulfide, diisopropylamine, trimethylamine, benzene, toluene and xylene, incorporating said organic components having a hydrocarbon into said element, taking out said element in which said organic components having a hydrocarbon were incorporated, separating said organic components having a hydrocarbon from said element.
A method for synchronizing encrypted content with a first device, the method performed by a second device and comprising: designating content to be transferred to the first device; identifying a media storage structure stored on the second device that includes (i) a set of encrypted content pieces that include content designated as content to be transferred to the first device and (ii) a set of keys, wherein each particular key in the set of keys is for decrypting a particular encrypted content piece in the set of the encrypted content pieces; removing any encrypted content pieces from the media storage structure that have not been designated for transfer to the first device; removing the key associated with each of the removed encrypted content pieces; and transferring the media storage structure to the first device without the removed encrypted content pieces and keys. designating content to be transferred to the first device; identifying a media storage structure stored on the second device that includes (i) a set of encrypted content pieces that include content designated as content to be transferred to the first device and (ii) a set of keys, wherein each particular key in the set of keys is for decrypting a particular encrypted content piece in the set of the encrypted content pieces; removing any encrypted content pieces from the media storage structure that have not been designated for transfer to the first device; removing the key associated with each of the removed encrypted content pieces; and transferring the media storage structure to the first device without the removed encrypted content pieces and keys.
A polymer composition comprising: from 80 to 99.5 wt% ethylene-derived units; and from 0.5 to 20 wt% of alpha-olefin derived units other than ethylene-derived units; wherein the polymer composition has a total internal unsaturations (Vy1+Vy2+T1) of from 0.15 to 0.40 per 1000 carbon atoms, an MI of from 0.1 to 6 g/10 min, an HLMI of from 5.0 to 40 g/10 min, a density of from 0.890 to 0.940 g/ml, a Tw 1 -Tw 2 value of from -40 to - 28°C, an Mw 1 /Mw 2 value of from 2.2 to about 2.5, an Mw/Mn of from 7.0 to 9.5, an Mz/Mw of from 2.7 to 2.8, an Mz/Mn of from 19 to 21, and a g' (vis) greater than 0.94; wherein Vy1, Vy2 and T1 are determined by 1 H-NMR as described in the present specification, MI is determined according to ASTM D1238, 190° C, 2.16 kg load, HLMI is determined according to ASTM D1238, 190° C, 21.6 kg load, density is determined according to ASTM D 1505 using a density gradient column on a sample molded according to ASTM D 4703-10a, Procedure C, and then conditioned under ASTM D 618-08 at 23° ± 2° C and 50 ± 10% relative humidity, for 40 hours prior to testing, Mw, Mn, Mz, the content of alpha-olefin derived units other than ethylene-derived units, and g' (vis) are determined by the GPC 4D methodology as described in the present specification, and Tw 1, Tw 2, Mw 1 and Mw 2 are determined from data obtained by cross-fraction chromatography analysis as described in the present specification. from 80 to 99.5 wt% ethylene-derived units; and from 0.5 to 20 wt% of alpha-olefin derived units other than ethylene-derived units; wherein the polymer composition has a total internal unsaturations (Vy1+Vy2+T1) of from 0.15 to 0.40 per 1000 carbon atoms, an MI of from 0.1 to 6 g/10 min, an HLMI of from 5.0 to 40 g/10 min, a density of from 0.890 to 0.940 g/ml, a Tw 1 -Tw 2 value of from -40 to - 28°C, an Mw 1 /Mw 2 value of from 2.2 to about 2.5, an Mw/Mn of from 7.0 to 9.5, an Mz/Mw of from 2.7 to 2.8, an Mz/Mn of from 19 to 21, and a g' (vis) greater than 0.94; wherein Vy1, Vy2 and T1 are determined by 1 H-NMR as described in the present specification, MI is determined according to ASTM D1238, 190° C, 2.16 kg load, HLMI is determined according to ASTM D1238, 190° C, 21.6 kg load, density is determined according to ASTM D 1505 using a density gradient column on a sample molded according to ASTM D 4703-10a, Procedure C, and then conditioned under ASTM D 618-08 at 23° ± 2° C and 50 ± 10% relative humidity, for 40 hours prior to testing, Mw, Mn, Mz, the content of alpha-olefin derived units other than ethylene-derived units, and g' (vis) are determined by the GPC 4D methodology as described in the present specification, and Tw 1, Tw 2, Mw 1 and Mw 2 are determined from data obtained by cross-fraction chromatography analysis as described in the present specification.
A method for managing the movement of a vehicle configured for transporting a load comprising a ball and a support structure cooperating with said ball, wherein the ball represents the single point of contact with the ground and is configured for moving the vehicle with respect to the ground, the method comprising the steps of: - measuring at least one parameter relative to the position of the vehicle with respect to the ground by means of at least one sensor positioned on the vehicle; - processing the measurement of said parameter in a first subsystem which represents the pattern of the vehicle along the vertical plane yz which divides the vehicle in its front and rear halves and in a second subsystem which represents the pattern of the vehicle along the vertical plane xz, orthogonal to plane yz, which divides the vehicle in its right and left halves; - estimating a dynamic state of the vehicle based on the processing of at least said parameter and calculating control information through a control module; and - implementing at least one mechanism in response to the calculation of the control information to maintain the vehicle in an equilibrium state, said mechanism being coupled with the ball; characterized in that the processing of the measurement of the parameter in the first and in the second subsystem takes place in a parallel and synchronized manner. - measuring at least one parameter relative to the position of the vehicle with respect to the ground by means of at least one sensor positioned on the vehicle; - processing the measurement of said parameter in a first subsystem which represents the pattern of the vehicle along the vertical plane yz which divides the vehicle in its front and rear halves and in a second subsystem which represents the pattern of the vehicle along the vertical plane xz, orthogonal to plane yz, which divides the vehicle in its right and left halves; - estimating a dynamic state of the vehicle based on the processing of at least said parameter and calculating control information through a control module; and - implementing at least one mechanism in response to the calculation of the control information to maintain the vehicle in an equilibrium state, said mechanism being coupled with the ball;