mhurhangee/ep-ind-claims huggingface dataset:
Compound for use in the SLS process, obtainable by compounding a material composed of at least a - first semicrystalline plastic selected from the group of the polyaryletherketones, -PAEK-, polyetherketoneketone -PEKK-, polyetherketone -PEK-, polyetheretherketone -PEEK- and a - second amorphous plastic selected from the group of polyetherimide -PEI-, polyethersulfone -PES-, polyphenylenesulfone -PPSU- and/or polysulfone -PSU-, where - the proportion of first semicrystalline plastic is predominant before the compounding, - all derivatives of the compounds mentioned are included, and both the first plastic and the second plastic may themselves be present as a mixture in the compound, and - the compound is in amorphous morphology before the pulverization. - first semicrystalline plastic selected from the group of the polyaryletherketones, -PAEK-, polyetherketoneketone -PEKK-, polyetherketone -PEK-, polyetheretherketone -PEEK- and a - second amorphous plastic selected from the group of polyetherimide -PEI-, polyethersulfone -PES-, polyphenylenesulfone -PPSU- and/or polysulfone -PSU-, where - the proportion of first semicrystalline plastic is predominant before the compounding, - all derivatives of the compounds mentioned are included, and both the first plastic and the second plastic may themselves be present as a mixture in the compound, and - the compound is in amorphous morphology before the pulverization.
Process for the preparation of an electronic device comprising a first functional layer and a second functional layer which form an interface, wherein the process comprises the following process steps: a1) depositing a first solution containing a first organic functional material and a first solvent on a support; a2) drying said first solution and optionally annealing said first organic functional material to obtain a first functional layer; b1) depositing a second solution containing a second organic functional material and a second solvent on the first functional layer; and b2) drying said second solution and optionally annealing said second organic functional material to obtain a second functional layer; characterized in that the absolute solubility of the first organic functional material in the second solvent is in the range from 0.1 to 200 g/L, preferably from 5.0 to 200 g/L, and more preferably from 5.1 to 200 g/L, at 25°C, in that the absolute solubility of the second organic functional material in the second solvent is > 5.0 g/L, preferably > 5.1 g/L, and more preferably > 5.2 g/L, at 25°C, in that the second solvent is an organic solvent having a boiling point in the range from 210 to 350°C at 1.01325 bar and in that the dissolution rate of the first organic functional material in the second solvent is < 0.116 g/(L min) at 25°C. a1) depositing a first solution containing a first organic functional material and a first solvent on a support; a2) drying said first solution and optionally annealing said first organic functional material to obtain a first functional layer; b1) depositing a second solution containing a second organic functional material and a second solvent on the first functional layer; and b2) drying said second solution and optionally annealing said second organic functional material to obtain a second functional layer;
A brush making machine comprising a stationary guide block, a plurality of carriages which can be adjusted around the guide block, a single and individual drive device for each carriage by which each carriage can be adjusted around the guide block, and a trimming station for cutting and/or finishing bristles of a brush by means of at least one tool, characterized in that the tool is adjustable only along one direction.
An image encoding apparatus, comprising: acquiring means (103, 104) for acquiring data from a light field imaging device and generating N viewpoint images of different viewpoints from the acquired data, wherein N is an integer with N ≥ 2; first generation means for calculating, for all pixels of the N viewpoint images, an average value of values of the N corresponding pixels corresponding to each other in the N viewpoint images, the corresponding pixels being pixels at the same position out of the N viewpoint images, and generating an image focused at a predetermined focal position and having the average value as a value of a respective pixel; second generation means for generating, without using the image generated by said first generation means, N-1 types of difference values from the values of the corresponding pixels used to derive the values of the corresponding pixels in the N viewpoint images from the value of the respective pixel generated by said first generation means; and encoding means for encoding the image generated by said first generation means and difference information formed from the N-1 types of difference values generated by said second generation means. acquiring means (103, 104) for acquiring data from a light field imaging device and generating N viewpoint images of different viewpoints from the acquired data, wherein N is an integer with N ≥ 2; first generation means for calculating, for all pixels of the N viewpoint images, an average value of values of the N corresponding pixels corresponding to each other in the N viewpoint images, the corresponding pixels being pixels at the same position out of the N viewpoint images, and generating an image focused at a predetermined focal position and having the average value as a value of a respective pixel; second generation means for generating, without using the image generated by said first generation means, N-1 types of difference values from the values of the corresponding pixels used to derive the values of the corresponding pixels in the N viewpoint images from the value of the respective pixel generated by said first generation means; and encoding means for encoding the image generated by said first generation means and difference information formed from the N-1 types of difference values generated by said second generation means.
A method for enabling allocation of resources for one or more of a plurality of hosts, the method being performed by a server and comprising: identifying a service running on one or more of the plurality of hosts; determining a stretch factor for recurring load patterns for the service running on the one or more of the plurality of hosts, wherein the stretch factor associates a first load pattern having a first time series of a first length to a second load pattern having a second time series of a second length different from the first length, and wherein the first time series and the second time series have the same key characteristics, wherein the same key characteristics comprise number of peaks, height of peaks, wherein the stretch factor is determined by Dynamic Time Warping, DTW, by - determining a load pattern for the identified service, - determining an alignment between the determined load pattern and all known pattern, and - obtaining a minimum distance mapping between the determined load pattern and all known patterns, storing the identified service together with the determined stretch factor, training a classifier with the load patterns normalized with the determined stretch factor, predicting a load pattern for a service, utilizing the trained classifier, and allocating resources for the one or more of the plurality of hosts based on the predicted load pattern. identifying a service running on one or more of the plurality of hosts; determining a stretch factor for recurring load patterns for the service running on the one or more of the plurality of hosts, wherein the stretch factor associates a first load pattern having a first time series of a first length to a second load pattern having a second time series of a second length different from the first length, and wherein the first time series and the second time series have the same key characteristics, wherein the same key characteristics comprise number of peaks, height of peaks, wherein the stretch factor is determined by Dynamic Time Warping, DTW, by - determining a load pattern for the identified service, - determining an alignment between the determined load pattern and all known pattern, and - obtaining a minimum distance mapping between the determined load pattern and all known patterns, - determining a load pattern for the identified service, - determining an alignment between the determined load pattern and all known pattern, and - obtaining a minimum distance mapping between the determined load pattern and all known patterns, storing the identified service together with the determined stretch factor, training a classifier with the load patterns normalized with the determined stretch factor, predicting a load pattern for a service, utilizing the trained classifier, and allocating resources for the one or more of the plurality of hosts based on the predicted load pattern.
Apparatus for separating product parts of cut products, in particular fish fillets, comprising a transport element for transporting the cut products still lying together in the transport direction T, means for transversely conveying product parts in the transverse direction Q transversely to the transport direction T, and a transport element for carrying away the separated product parts, characterised in that the apparatus further comprises means for detecting the position of the products on the transport element and for capturing product-specific data and in that the means for transverse conveying has at least two product fingers which are designed to engage in cutting grooves between product parts and to rest on product parts and can be controlled in accordance with the position of the products and the product-specific data accordingly for transverse conveying in the transverse direction Q.
A rotary engine, comprising: an outer body defining a rotor cavity; a rotor rotatable within the rotor cavity and in sealing engagement with walls of the outer body and defining at least one chamber of variable volume in the rotor cavity; a pilot subchamber defined by the outer body, the pilot subchamber having an outlet in fluid flow communication with the rotor cavity; a main fuel source of a heavy fuel; an alternative fuel source of an alternative fuel different from the heavy fuel; a main injector having a tip in fluid communication with the rotor cavity at a location spaced apart from the outlet of the pilot subchamber, the main injector selectively fluidly connectable to the main fuel source or to the alternative fuel source; and a controller having a processing unit and a computer-readable medium having instructions stored thereon executable by the processing unit to cause the processing unit to: determine that the rotary engine (10, 110, 210) is in a vicinity of a city or an airport; and upon determining that the rotary engine (10, 110, 210) is in the vicinity of the city or the airport, operate the main injector in a first configuration in which the main injector fluidly connects the alternative fuel source to the rotor cavity while disconnecting the main fuel source from the rotor cavity. an outer body defining a rotor cavity; a rotor rotatable within the rotor cavity and in sealing engagement with walls of the outer body and defining at least one chamber of variable volume in the rotor cavity; a pilot subchamber defined by the outer body, the pilot subchamber having an outlet in fluid flow communication with the rotor cavity; a main fuel source of a heavy fuel; an alternative fuel source of an alternative fuel different from the heavy fuel; a main injector having a tip in fluid communication with the rotor cavity at a location spaced apart from the outlet of the pilot subchamber, the main injector selectively fluidly connectable to the main fuel source or to the alternative fuel source; and a controller having a processing unit and a computer-readable medium having instructions stored thereon executable by the processing unit to cause the processing unit to: determine that the rotary engine (10, 110, 210) is in a vicinity of a city or an airport; and upon determining that the rotary engine (10, 110, 210) is in the vicinity of the city or the airport, operate the main injector in a first configuration in which the main injector fluidly connects the alternative fuel source to the rotor cavity while disconnecting the main fuel source from the rotor cavity. determine that the rotary engine (10, 110, 210) is in a vicinity of a city or an airport; and upon determining that the rotary engine (10, 110, 210) is in the vicinity of the city or the airport, operate the main injector in a first configuration in which the main injector fluidly connects the alternative fuel source to the rotor cavity while disconnecting the main fuel source from the rotor cavity.
A method of making a polymer-modified polyol having a solid content from 13 to 55 wt.% wherein an olamine is reacted with an organic polyisocyanate in the presence of a base polyol and at least one catalyst, wherein said at least one catalyst is a zinc carboxylate, and wherein the base polyol has hydroxyl functions wherein more than 20 % of said hydroxyl functions are primary hydroxyl functions, characterized in that the reaction is carried out in the presence of a cross-linking agent having a weight average molecular weight from 200 to 1000 g/mol.
A method for controlling output of a marine seismic vibrator, comprising: operating the vibrator using a predetermined driver signal, the vibrator having a substantially elliptical outer shell in contact with a body of water; measuring a vibrator output signal at at least one end beam supporting each longitudinal end of the outer shell and on the outer shell; inputting the at least two measured vibrator output signals to an iterative learning control system to determine a corrected driver signal, wherein the corrected driver signal results in fewer harmonics of fundamental frequencies in the vibrator output; and operating the vibrator using the corrected driver signal. operating the vibrator using a predetermined driver signal, the vibrator having a substantially elliptical outer shell in contact with a body of water; measuring a vibrator output signal at at least one end beam supporting each longitudinal end of the outer shell and on the outer shell; inputting the at least two measured vibrator output signals to an iterative learning control system to determine a corrected driver signal, wherein the corrected driver signal results in fewer harmonics of fundamental frequencies in the vibrator output; and operating the vibrator using the corrected driver signal.
Printed heating device comprising heating circuit elements: printed bus bars (2,3); printed tracks; further comprising: printed connections between the heating circuit elements; a flexible substrate, characterised in that: the bus bars (2,3) are made of materials with sheet resistivities comprised between 0.197 and 1.57 Ohm/sq/mm (5 and 40 mOhm/sq/mil); the printed tracks are made of materials with sheet resistivities comprised between 394 and 3940 Ohm/sq/mm (10 and 100 Ohm/sq/mil); the flexible substrate is a mesh coated with a polymeric film. printed bus bars (2,3); printed tracks; printed connections between the heating circuit elements; a flexible substrate, the bus bars (2,3) are made of materials with sheet resistivities comprised between 0.197 and 1.57 Ohm/sq/mm (5 and 40 mOhm/sq/mil); the printed tracks are made of materials with sheet resistivities comprised between 394 and 3940 Ohm/sq/mm (10 and 100 Ohm/sq/mil); the flexible substrate is a mesh coated with a polymeric film.
An apparatus for transmitting a multimedia data stream, the apparatus comprising: a data source unit which is configured to output the multimedia data stream; a frame dividing unit which is configured to divide the multimedia data stream according to a type of a video frame included in the multimedia data stream and to output the divided multimedia data stream, and which is configured to classify the divided multimedia data stream into multiple classes, each class corresponding to one of a plurality of network interface units; a parameter control unit which is configured to obtain parameters for controlling packet transmission from each of said plurality of network interface units, to construct a plurality of different parameter sets, each parameter set comprising a set of values corresponding to the obtained parameters, to select a parameter set among said plurality of parameter sets that minimizes network consumption when transmitting the divided multimedia stream using said plurality of network interface units while satisfying a quality of service QoS higher than a predefined level; said plurality of network interface units being configured to control transmission of the divided multimedia data stream using the selected parameter set, wherein each network interface unit is configured to independently transmit that part of the divided multimedia data stream that has been classified into the class corresponding to said network interface unit. a data source unit which is configured to output the multimedia data stream; a frame dividing unit which is configured to divide the multimedia data stream according to a type of a video frame included in the multimedia data stream and to output the divided multimedia data stream, and which is configured to classify the divided multimedia data stream into multiple classes, each class corresponding to one of a plurality of network interface units; a parameter control unit which is configured to obtain parameters for controlling packet transmission from each of said plurality of network interface units, to construct a plurality of different parameter sets, each parameter set comprising a set of values corresponding to the obtained parameters, to select a parameter set among said plurality of parameter sets that minimizes network consumption when transmitting the divided multimedia stream using said plurality of network interface units while satisfying a quality of service QoS higher than a predefined level; said plurality of network interface units being configured to control transmission of the divided multimedia data stream using the selected parameter set, wherein each network interface unit is configured to independently transmit that part of the divided multimedia data stream that has been classified into the class corresponding to said network interface unit.
A method of forming a tubular molded foam having a tube body (13, 101) and a plate portion extending from an outside of the tube body, the method comprising a step of restricting the thickness of the plate portion during molding so as to form at least one recessed groove in the region of the meeting between the plate portion and the tube body, including forming at least one restriction configured to follow at least part of the shape of the outside of the tube body (13, 101); wherein the plate portion is pressed in a thickness direction between opposing cavity surfaces (10a, 10b) of split mold blocks (12a, 12b); characterised in that a protrusion for forming each recessed groove is provided on a cavity surface of the split mold blocks in the vicinity of a joint surface between the plate portion and the tube body such that when the plate portion is compressed to the thickness between the cavity surfaces the protrusion functions as a dam with respect to movement of foamed cells in the plate portion, the foamed cells being directly cooled by the split mold blocks.
Method for combusting fuel gas with oxidant gas in a process furnace comprising a firebox containing a burner and a tube, which method comprises optionally pre-heating an oxidant gas and/or a fuel gas; and subjecting the oxidant gas and/or the fuel gas to humidification, thereby obtaining a humidified gas; characterized by superheating the humidified gas with an external waste heat stream before feeding the gas to the burner, wherein the humidification step results in a humidified gas of 20-50 °C, wherein the humidified gas is superheated to a temperature of 40-75°C, and wherein the temperature of the humidified gas in the superheating step is increased by at least 10 °C. optionally pre-heating an oxidant gas and/or a fuel gas; and subjecting the oxidant gas and/or the fuel gas to humidification, thereby obtaining a humidified gas; characterized by superheating the humidified gas with an external waste heat stream before feeding the gas to the burner, wherein the humidification step results in a humidified gas of 20-50 °C, wherein the humidified gas is superheated to a temperature of 40-75°C, and wherein the temperature of the humidified gas in the superheating step is increased by at least 10 °C.
A self-propelling watercraft system, comprising: a hull comprising: a base, the base having a recess, and a plurality of sidewalls extending from the base to form a cockpit; and a pump system detachably connected to the hull and positioned within the recess, the pump system comprising: a water intake port on a first face of the pump system; a water exhaust port on a second face of the pump system, the first face approximately perpendicular to the second face, the water intake port and the water exhaust port together part of a water flow path through the pump system; a grate formed over the water intake port; a drybox housing an electric motor, an electric motor drive with a plate placed between the electric motor and the electric motor drive, a motor side pulley mechanically connected to the electric motor drive, a belt drive and a drive shaft side pulley; and a paddle including a control mechanism for electronically communicating with the pump system, wherein the control mechanism of the paddle comprises: a processor; an accelerometer coupled to the processor; and a memory coupled to the processor, the memory storing a pattern of accelerometer readings that have been previously associated with a motor command to cause the motor controller to activate the motors. a hull comprising: a base, the base having a recess, and a plurality of sidewalls extending from the base to form a cockpit; and a base, the base having a recess, and a plurality of sidewalls extending from the base to form a cockpit; and a pump system detachably connected to the hull and positioned within the recess, the pump system comprising: a water intake port on a first face of the pump system; a water exhaust port on a second face of the pump system, the first face approximately perpendicular to the second face, the water intake port and the water exhaust port together part of a water flow path through the pump system; a grate formed over the water intake port; a drybox housing an electric motor, an electric motor drive with a plate placed between the electric motor and the electric motor drive, a motor side pulley mechanically connected to the electric motor a water intake port on a first face of the pump system; a water exhaust port on a second face of the pump system, the first face approximately perpendicular to the second face, the water intake port and the water exhaust port together part of a water flow path through the pump system; a grate formed over the water intake port; a drybox housing an electric motor, an electric motor drive with a plate placed between the electric motor and the electric motor drive, a motor side pulley mechanically connected to the electric motor drive, a belt drive and a drive shaft side pulley; and a processor; an accelerometer coupled to the processor; and a memory coupled to the processor, the memory storing a pattern of accelerometer readings that have been previously associated with a motor command to cause the motor controller to activate the motors.
A highway marking paint comprising: a. waterborne latex paint; and b. porous silica having a pore volume in the range of 1.0 cc/g to 3.0 cc/g and a particle size ranging from 2.00 mm (10 US Mesh) to 0.105 mm (140 US Mesh). a. waterborne latex paint; and b. porous silica having a pore volume in the range of 1.0 cc/g to 3.0 cc/g and a particle size ranging from 2.00 mm (10 US Mesh) to 0.105 mm (140 US Mesh).