mhurhangee/ep-ind-claims huggingface dataset:
A unit for simulating the pressure and temperature conditions of an airflow drawn in by a reciprocating internal combustion engine at a height above sea level corresponding to the operating height of said reciprocating internal combustion engine, said unit comprising: (a) a radial inward-flow turbine for expanding an airflow from an initial state of pressure p0 and temperature T0 to a second state of pressure p1 and temperature T1, where p0 and T0 correspond to the pressure and temperature of the atmosphere A1 in which the reciprocating internal combustion engine is located and where p1 and T1 correspond to the pressure and temperature of the airflow drawn in by the reciprocating internal combustion engine; (b) a first container located after the radial inward-flow turbine and at the inlet of the reciprocating internal combustion engine for providing said airflow thereto at a pressure p1 and a temperature T1; (c) a second container located at the outlet of the reciprocating internal combustion engine and connected to the first container through at least a connection pipe in order to balance the pressure between both containers; characterized in that said unit also comprises at least the following equipment: (d) a centrifugal compressor attached by its shaft to the radial inward-flow turbine, the assembly forming a system known as a turbine generator; (e) a vacuum pump located after the second container for maintaining a pressure equal to the pressure of the airflow drawn in by the reciprocating internal combustion engine. (a) a radial inward-flow turbine for expanding an airflow from an initial state of pressure p0 and temperature T0 to a second state of pressure p1 and temperature T1, where p0 and T0 correspond to the pressure and temperature of the atmosphere A1 in which the reciprocating internal combustion engine is located and where p1 and T1 correspond to the pressure and temperature of the airflow drawn in by the reciprocating internal combustion engine; (b) a first container located after the radial inward-flow turbine and at the inlet of the reciprocating internal combustion engine for providing said airflow thereto at a pressure p1 and a temperature T1; (c) a second container located at the outlet of the reciprocating internal combustion engine and connected to the first container through at least a connection pipe in order to balance the pressure between both containers; characterized in that said unit also comprises at least the following equipment: (d) a centrifugal compressor attached by its shaft to the radial inward-flow turbine, the assembly forming a system known as a turbine generator; (e) a vacuum pump located after the second container for maintaining a pressure equal to the pressure of the airflow drawn in by the reciprocating internal combustion engine.
Device for adaptive intervention with an individual in connection with a bed fall risk of the individual, the device comprising: - a first port for obtaining personal data of the individual and a total risk score of the individual, - an intervention unit for determining a projection regarding an imminent bed fall of the individual and a timeframe for an intervention to prevent the bed fall of the individual based on the obtained data (120, 114), and - a second port for outputting an intervention signal based to the projection and the obtained data (120, 114). - a first port for obtaining personal data of the individual and a total risk score of the individual, - an intervention unit for determining a projection regarding an imminent bed fall of the individual and a timeframe for an intervention to prevent the bed fall of the individual based on the obtained data (120, 114), and - a second port for outputting an intervention signal based to the projection and the obtained data (120, 114).
An electronic connection module for mounting within an electronic device, the electronic connection module comprising: a connection port comprising a connector and a first sealing ring disposed on an outer surface of the connector at an open end (28, 32, 52) of the connector, the open end (28, 32, 52) being configured to receive a mating connector; an intermediate housing configured to receive the connection port, the intermediate housing comprising an inner surface against which the first sealing ring of the connection port interfaces to provide a seal between the inner surface of the intermediate housing and the connection port; a module housing configured to receive the intermediate housing and the connection port; and an O-ring disposed on an outer surface of the intermediate housing for interfacing with an inner surface of the electronic device, the O-ring being disposed between a ledge projecting from an outer surface of the intermediate housing and the module housing; characterized in that the electronic connection module further comprises: a biasing unit disposed between the module housing and the connection port, the biasing unit configured to bias the connection port towards a shelf of the intermediate housing such that the open end (28, 32, 52) of the connection port abuts the shelf of the intermediate housing to secure the connection port within the intermediate housing. a connection port comprising a connector and a first sealing ring disposed on an outer surface of the connector at an open end (28, 32, 52) of the connector, the open end (28, 32, 52) being configured to receive a mating connector; an intermediate housing configured to receive the connection port, the intermediate housing comprising an inner surface against which the first sealing ring of the connection port interfaces to provide a seal between the inner surface of the intermediate housing and the connection port; a module housing configured to receive the intermediate housing and the connection port; and an O-ring disposed on an outer surface of the intermediate housing for interfacing with an inner surface of the electronic device, the O-ring being disposed between a ledge projecting from an outer surface of the intermediate housing and the module housing; characterized in that the electronic connection module further comprises: a biasing unit disposed between the module housing and the connection port, the biasing unit configured to bias the connection port towards a shelf of the intermediate housing such that the open end (28, 32, 52) of the connection port abuts the shelf of the intermediate housing to secure the connection port within the intermediate housing.
A composition Z comprising a component A, component B and /or C, and component D, wherein the component A is a thermoplastic material selected from the group consisting of polyolefins, polyolefin copolymers and polystyrenes; the component B is an organic additive selected from the group consisting of glycerol, a polyglycerol, a glycerol ester, a polyglycerol ester and a combination thereof; the component C is an organic additive selected from the group consisting of sorbitol, a sorbitol ester, sorbitan, a sorbitan ester, and a combination thereof; the component D is an inorganic additive selected from the group of layered double hydroxides.
A process for producing BTX comprising the steps of: (a) providing a hydrocracking feed stream comprising C 5 -C 12 hydrocarbons, (b) contacting the hydrocracking feed stream in the presence of hydrogen with a hydrocracking catalyst under process conditions including a temperature of 425-580°C, a pressure of 300-5000 kPa gauge and a Weight Hourly Space Velocity of 3-30 h -1 to produce a hydrocracking product stream comprising BTX and (c) separating the BTX from the hydrocracking product stream, wherein the hydrocracking catalyst comprises a shaped body comprising a zeolite and a binder and a hydrogenation metal deposited on the shaped body, wherein the amount of the hydrogenation metal is 0.015-0.095 wt% with respect to the total catalyst and wherein the zeolite is ZSM-5 having a silica to alumina molar ratio of 25-75. (a) providing a hydrocracking feed stream comprising C 5 -C 12 hydrocarbons, (b) contacting the hydrocracking feed stream in the presence of hydrogen with a hydrocracking catalyst under process conditions including a temperature of 425-580°C, a pressure of 300-5000 kPa gauge and a Weight Hourly Space Velocity of 3-30 h -1 to produce a hydrocracking product stream comprising BTX and (c) separating the BTX from the hydrocracking product stream,
A control unit for an automatic device for preparing a beverage, which control unit is provided with an input means which enables a user to choose from a plurality of formulations a formulation for the beverage to be prepared, wherein the control unit is provided with an operating unit for controlling a preparation unit of the automatic device, wherein the input means comprises an image input means (52; 52l, 52r, 52t, 52b) for visually observing the user and for generating image signals (Vxy) which are representative of the visual observation and wherein the operating unit includes an analysis module, an activation module and a control module for generating control signals (Sc) for the preparation unit of the automatic device from preprocessed image signals (Vxy), the control unit furthermore being provided with visual display means for showing possible choices for the formulations of the beverage to be prepared by the device, characterized in that the analysis module is arranged for calculating a horizontal position (xz) and a vertical position (yz) of a center of gravity of the user from the preprocessed image signals (Vxy), which are passed to the control module wherein the vertical position is further supplied to the activation module, which delivers an activation signal (Ex) to the control module if the vertical position (yz) of the center of gravity has varied to a sufficient extent, as an indication of the energy spent by the user, and wherein the user is enabled to make a selection from the possibilities shown by choosing a horizontal position.
A drying air filter for a laundry dryer comprising a) at least one filter mesh (3, 6, 32, 33) b) at least one supporting grid (2, 5, 20b, 22b) provided for supporting the filter mesh (3, 6, 32, 33) and comprising at least one supporting rib (8, 11, 34, 35) and supporting grid openings (27, 29), which are at least partially separated from each other by at least one or more of the at least one supporting rib (8, 11, 34, 35) and which define an air passage area for passing through of the drying air, c) at least one propping grid (4, 7, 16b, 18b) provided for propping up the at least one supporting grid (2, 5, 20b, 22b), the at least one propping grid (4, 7, 16b, 18b) comprising at least one propping rib (9, 13, 26, 28) and propping grid openings (66, 68), which are at least partially separated from each other by at least one or more of the propping ribs (9, 13, 26, 28) and which are at least partially provided for passing through of the drying air, characterized in that d) at least one contact portion (45, 47, X1, X3, X6, XA, XB, XC) is arranged to provide contact between at least one supporting rib (8, 11, 34, 35) and at least one propping rib (9, 13, 26, 28) in order to prop up the respective supporting rib (8, 11, 34, 35), wherein at least one contact portion (45, 47, X1, X3, X6, XA, XB, XC) comprises at least one protrusion (45, 47) at the respective supporting rib and/or the respective propping rib, wherein the at least one contact portion is arranged within an inner area of the air passage area defined by the support grid openings of at least one supporting grid. a) at least one filter mesh (3, 6, 32, 33) b) at least one supporting grid (2, 5, 20b, 22b) provided for supporting the filter mesh (3, 6, 32, 33) and comprising at least one supporting rib (8, 11, 34, 35) and supporting grid openings (27, 29), which are at least partially separated from each other by at least one or more of the at least one supporting rib (8, 11, 34, 35) and which define an air passage area for passing through of the drying air, c) at least one propping grid (4, 7, 16b, 18b) provided for propping up the at least one supporting grid (2, 5, 20b, 22b), the at least one propping grid (4, 7, 16b, 18b) comprising at least one propping rib (9, 13, 26, 28) and propping grid openings (66, 68), which are at least partially separated from each other by at least one or more of the propping ribs (9, 13, 26, 28) and which are at least partially provided for passing through of the drying air, characterized in that d) at least one contact portion (45, 47, X1, X3, X6, XA, XB, XC) is arranged to provide contact between at least one supporting rib (8, 11, 34, 35) and at least one propping rib (9, 13, 26, 28) in order to prop up the respective supporting rib (8, 11, 34, 35), wherein at least one contact portion (45, 47, X1, X3, X6, XA, XB, XC) comprises at least one protrusion (45, 47) at the respective supporting rib and/or the respective propping rib, wherein the at least one contact portion is arranged within an inner area of the air passage area defined by the support grid openings of at least one supporting grid.
A method for regulating the speed of a vehicle from a target vehicle, said method being implemented by at least one processor, said method comprising the following steps: - detection of a change in the vehicle's lane of traffic from a first lane of traffic, on which the vehicle travels, to a second lane of traffic, on which the vehicle will travel when the lane change is completed, the second lane of traffic being delimited by a shoreline and a separation line; - detection of a first target vehicle travelling in the first lane of traffic and of a second target vehicle travelling in the second lane; characterized in that it comprises the following steps: - obtaining a first lateral distance between the first target vehicle and the shoreline and a second lateral distance between the second target vehicle and the shoreline; - the speed of the vehicle being then regulated in relation to the first target vehicle if the first lateral distance is less than the second lateral distance, and the second target vehicle if the first lateral distance is greater than the second lateral distance. - detection of a change in the vehicle's lane of traffic from a first lane of traffic, on which the vehicle travels, to a second lane of traffic, on which the vehicle will travel when the lane change is completed, the second lane of traffic being delimited by a shoreline and a separation line; - detection of a first target vehicle travelling in the first lane of traffic and of a second target vehicle travelling in the second lane; - obtaining a first lateral distance between the first target vehicle and the shoreline and a second lateral distance between the second target vehicle and the shoreline; - the speed of the vehicle being then regulated in relation to the first target vehicle if the first lateral distance is less than the second lateral distance, and the second target vehicle if the first lateral distance is greater than the second lateral distance.
A combustion furnace controller, comprising: a common control module configured to control an overall operation of a combustion furnace; and combustion zone control modules each provided for a corresponding one of combustion zones (A,B,C) of the combustion furnace and being configured to control an operation of one or more burners provided in the corresponding combustion zone, wherein the combustion zone control modules and the common control module are provided in a hierarchical manner, characterised in that the common control module is configured to control the overall operation of the combustion furnace by verifying the state of a first interlock for a safe operation of the combustion furnace and then generating common control signals required for the safe operation of the combustion furnace; and in that the combustion zone control modules are configured to control the operation of the one or more burners by verifying the state of a second interlock for a combustion environment in the corresponding combustion zone and a corresponding one of the common control signals. a common control module configured to control an overall operation of a combustion furnace; and combustion zone control modules each provided for a corresponding one of combustion zones (A,B,C) of the combustion furnace and being configured to control an operation of one or more burners provided in the corresponding combustion zone, wherein the combustion zone control modules and the common control module are provided in a hierarchical manner, characterised in that the common control module is configured to control the overall operation of the combustion furnace by verifying the state of a first interlock for a safe operation of the combustion furnace and then generating common control signals required for the safe operation of the combustion furnace; and in that the combustion zone control modules are configured to control the operation of the one or more burners by verifying the state of a second interlock for a combustion environment in the corresponding combustion zone and a corresponding one of the common control signals.
A packaging material being configured to store a content therein and having the shape of a stand-up pouch, the packaging material comprising a multilayer structure, the multilayer structure comprising: a semi-aromatic polyamide layer; an ethylene-vinyl alcohol copolymer layer; and a thermoplastic resin layer between the semi-aromatic polyamide layer and the ethylene-vinyl alcohol copolymer layer, the thermoplastic resin layer containing a thermoplastic resin other than a semi-aromatic polyamide and an ethylene-vinyl alcohol copolymer; wherein the ethylene content in the ethylene-vinyl alcohol copolymer is 20 mol% to 60 mol%, measured according to ISO 14663; wherein the saponification degree of the vinyl ester component in the ethylene-vinyl alcohol copolymer is 90 mol% to 100 mol%, measured according to JIS K6726, wherein the ethylene-vinyl alcohol copolymer is a solution uniformly dissolved in a water/methanol solvent having a weight ratio water: methanol of 9:1; and wherein the total thickness of the entire multilayer structure is 10 μm to 500 μm. a semi-aromatic polyamide layer; an ethylene-vinyl alcohol copolymer layer; and a thermoplastic resin layer between the semi-aromatic polyamide layer and the ethylene-vinyl alcohol copolymer layer, the thermoplastic resin layer containing a thermoplastic resin other than a semi-aromatic polyamide and an ethylene-vinyl alcohol copolymer; wherein the ethylene content in the ethylene-vinyl alcohol copolymer is 20 mol% to 60 mol%, measured according to ISO 14663; wherein the saponification degree of the vinyl ester component in the ethylene-vinyl alcohol copolymer is 90 mol% to 100 mol%, measured according to JIS K6726, wherein the ethylene-vinyl alcohol copolymer is a solution uniformly dissolved in a water/methanol solvent having a weight ratio water: methanol of 9:1; and wherein the total thickness of the entire multilayer structure is 10 μm to 500 μm.
A two-part electrical contact comprising a first part and a second part, the first part being configured with a first contacting zone that is at least partially inserted into the second part configured with a second contacting zone; wherein the second part is configured with at least one opening to receive the first part and with at least one recess (25, 58) provided on an internal surface of the at least one opening that is capable of receiving displaced electrical contact material from the first part, and the first part being configured with at least one deformation zone (20, 50) formed thereon that is capable of being deformed, characterized in that the first part is inserted into the second part to fix the first part and the second part together in mechanical and electrical engagement, and the at least one deformation zone (20, 50) is configured to undergo deformation upon application of an insertion or extraction force during an abutment of the first part with the second part and to at least partially fill the at least one recess (25, 58) when deformed, thereby fixing the first part and the second part together.
A landing gear system comprising: a landing gear collar; a strut assembly supported by the landing gear collar, the strut assembly including a piston that is adjustable between a plurality of stroke positions from a fully extended position to a fully compressed position; a rotary encoder rotatably coupled to the strut assembly, the rotary encoder configured to rotate in response to adjusting the piston and to output a data value in response to rotating the rotary encoder, the data value including a plurality of voltages, where each voltage corresponds to a stroke position among the plurality of stroke positions; and a controller in signal communication with the rotary encoder and configured to determine a stroke of the piston based on the data value output from the rotary encoder; wherein the controller determines a correction value by calculating a difference between a measured voltage corresponding to a given manually measured stroke position and a calculated voltage based on the output from the rotary encoder indicating the given stroke position, and applies the correction value to the voltage output from the rotary encoder to generate a corrected voltage level that increases an accuracy of the determined stroke. a landing gear collar; a strut assembly supported by the landing gear collar, the strut assembly including a piston that is adjustable between a plurality of stroke positions from a fully extended position to a fully compressed position; a rotary encoder rotatably coupled to the strut assembly, the rotary encoder configured to rotate in response to adjusting the piston and to output a data value in response to rotating the rotary encoder, the data value including a plurality of voltages, where each voltage corresponds to a stroke position among the plurality of stroke positions; and a controller in signal communication with the rotary encoder and configured to determine a stroke of the piston based on the data value output from the rotary encoder; wherein the controller determines a correction value by calculating a difference between a measured voltage corresponding to a given manually measured stroke position and a calculated voltage based on the output from the rotary encoder indicating the given stroke position, and applies the correction value to the voltage output from the rotary encoder to generate a corrected voltage level that increases an accuracy of the determined stroke.
A cardboard-based unit, comprising a planar element (134, 234), comprising two or more layers of cardboard that are adhered one to the other and being constituted by a single formed cardboard panel having first (140, 240) and second (142, 242) faces; said cardboard-based unit being planar; said cardboard-based unit comprises two elongated core-envelope elements 130, 132, 230, 232) parallel one to the other and integral with said planar element; each of the two core-envelope elements (i) defines an edge of said cardboard-based structural unit, (ii) define edges of the planar element (134, 234) that extends therebetween, and (iii) comprises an enveloping portion of the formed cardboard panel that is wrapped about at least one elongated member (102, 104, 202, 204), and the elongated members separate between (a) a central (118, 218) segment of the formed cardboard panel and (b) first (114, 214) and second (116, 216) flanking segments of the formed cardboard panel, the flanking segments flanking opposite sides of the central segment of the formed cardboard panel.