mhurhangee/ep-ind-claims huggingface dataset:
A composite solar collector adapted to absorb thermal heating from the sun, wherein said solar collector comprises at least one hollow section adapted to house a medium, wherein the solar collector is a standalone mobile solar collector system for heating the medium, comprising a self-supporting structure produced from a composite material constituted by a mixture of at least a first and second material, wherein said first and second materials are different materials, characterized in that said first and second materials have equal or substantially equal coefficients of elasticity and wherein one of said first and second materials in said composite solar collector has a whirl or bogie spring shape.
The portal cutter containing two carriages, designed for moving the portal, which are mounted slidably on two longitudinal tracks located parallel to each other, which is equipped with the portal's drive unit, and the portal is equipped with crosswise tracks designed for mounting the tool rest carriage, and furthermore, it is fitted with a work table embedded in a tub and provided with a CNC controller for process control wherein on the portal the tool rest carriage for attaching the waterjet head and a tool rest carriage for mounting a plasma cutting torch are mounted slidably on the crosswise track, the tub of the cutting machine has a grid and a slatted grille, which form a work table; furthermore, the cutting machine is provided with two technological systems, one designed for creating and shaping the stream of water and one for creating and shaping plasma, characterized in that each of the tool rest carriages is provided with a separate drive unit and in that the computer controller is equipped with CNC software for controlling one or two cutting tools in the process of manufacturing one piece and all operations which take place in the process of cutting every piece - i.e. the movement of tools and the cutting parameters.
A manufacturing method of a non-oriented electrical steel sheet, comprising: performing hot-rolling of a steel material so as to form a steel strip, the steel material consisting of, in mass%: Si: not less than 0.1% nor more than 4.0%; Al: not less than 0.1% nor more than 3.0%; Mn: not less than 0.1% nor more than 2.0%; one or two selected from the group consisting of Cu: not less than 0.1% nor more than 1.0%, and Cr: not less than 0.2% nor more than 10.0%; C: 0.003% or less; optionally Sn: not less than 0.02% nor more than 0.40%; and optionally P: 0.15% or less; a balance being composed of Fe and inevitable impurity elements; next, performing first cold-rolling of the steel strip; next, performing intermediate annealing of the steel strip; next, performing second cold-rolling of the steel strip; and next, performing finish annealing of the steel strip, wherein a finish temperature in the hot-rolling is 900°C or less, the first cold-rolling is started without performing annealing after the hot-rolling; and a rolling reduction in the second cold-rolling is not less than 40% nor more than 85%. performing hot-rolling of a steel material so as to form a steel strip, the steel material consisting of, in mass%: Si: not less than 0.1% nor more than 4.0%; Al: not less than 0.1% nor more than 3.0%; Mn: not less than 0.1% nor more than 2.0%; one or two selected from the group consisting of Cu: not less than 0.1% nor more than 1.0%, and Cr: not less than 0.2% nor more than 10.0%; C: 0.003% or less; optionally Sn: not less than 0.02% nor more than 0.40%; and optionally P: 0.15% or less; a balance being composed of Fe and inevitable impurity elements; Si: not less than 0.1% nor more than 4.0%; Al: not less than 0.1% nor more than 3.0%; Mn: not less than 0.1% nor more than 2.0%; one or two selected from the group consisting of Cu: not less than 0.1% nor more than 1.0%, and Cr: not less than 0.2% nor more than 10.0%; C: 0.003% or less; optionally Sn: not less than 0.02% nor more than 0.40%; and optionally P: 0.15% or less; a balance being composed of Fe and inevitable impurity elements; next, performing first cold-rolling of the steel strip; next, performing intermediate annealing of the steel strip; next, performing second cold-rolling of the steel strip; and next, performing finish annealing of the steel strip, wherein a finish temperature in the hot-rolling is 900°C or less, the first cold-rolling is started without performing annealing after the hot-rolling; and a rolling reduction in the second cold-rolling is not less than 40% nor more than 85%.
An energy storage apparatus comprising: a plurality of energy storage devices; an outer covering arranged outside the plurality of energy storage devices; a partition member arranged on a side of any one of the plurality of energy storage devices; and a supporter configured to support the partition member at a predetermined position, characterized in that the supporter is formed of a heat resistant member having higher heat resistance than the outer covering, wherein the heat resistant member is made of at least one of a ceramic and a thermosetting resin, such as a phenol resin, a urea resin, a melamine resin, an unsaturated polyester resin, a diallyl phthalate resin, an epoxy resin, a silicon resin, an alkyd resin, a polyimide resin, a polyamino-bismaleimide resin, a casein resin, a furan resin and a urethane resin. a plurality of energy storage devices; an outer covering arranged outside the plurality of energy storage devices; a partition member arranged on a side of any one of the plurality of energy storage devices; and a supporter configured to support the partition member at a predetermined position, characterized in that the supporter is formed of a heat resistant member having higher heat resistance than the outer covering, wherein the heat resistant member is made of at least one of a ceramic and a thermosetting resin, such as a phenol resin, a urea resin, a melamine resin, an unsaturated polyester resin, a diallyl phthalate resin, an epoxy resin, a silicon resin, an alkyd resin, a polyimide resin, a polyamino-bismaleimide resin, a casein resin, a furan resin and a urethane resin.
Silica particles characterized by: (i) a BET surface area in a range from 0.1 to 7 m 2 /g; (ii) a pack density in a range from 0,561 to 0,881 g/cm 3; (iii) a brass Einlehner abrasion value in a range from 8 to 25 mg lost/100,000 revolutions; (iv) a total mercury intrusion pore volume in a range from 0.7 to 1.2 cc/g; and (v) a stannous compatibility in a range from 70 to 99% measured after centrifuged at 12,000 RPM for 10 minutes by an inductively coupled plasma optical emission spectrometer. (i) a BET surface area in a range from 0.1 to 7 m 2 /g; (ii) a pack density in a range from 0,561 to 0,881 g/cm 3; (iii) a brass Einlehner abrasion value in a range from 8 to 25 mg lost/100,000 revolutions; (iv) a total mercury intrusion pore volume in a range from 0.7 to 1.2 cc/g; and (v) a stannous compatibility in a range from 70 to 99% measured after centrifuged at 12,000 RPM for 10 minutes by an inductively coupled plasma optical emission spectrometer.
Device for reactivating a train which has an automatic train control, having a train reactivation device which can be supplied independently of train-borne subsystems and is provided for an event-triggered reactivation of the train-borne subsystems, wherein the device is designed to perform the following steps: A) event-triggered reactivation of the automatic train control with the help of the train reactivation device, B) activation of remaining train-borne subsystems of the train by the automatic train control. A) event-triggered reactivation of the automatic train control with the help of the train reactivation device, B) activation of remaining train-borne subsystems of the train by the automatic train control.
An analysis instrument for performing biochemical analysis, the instrument comprising plural modules, each module comprising an analysis apparatus that is operable to perform biochemical analysis of a sample, the module being arranged to produce output data of at least one channel representing the results of the biochemical analysis, the operation of the module being controllable in a manner that varies its performance, the analysis instrument further comprising a control system (80, 58) that is arranged to accept input selecting an arbitrary number of modules as a cluster for performing a common biochemical analysis and to accept input representing global performance targets in respect of the common biochemical analysis, the control system (80, 58) being arranged to control the operation of the modules of the cluster to perform the common biochemical analysis, wherein the control system is arranged to determine, at least once during the performance of the common biochemical analysis, measures of performance of each module from the output data produced by the modules, and the control system (80, 58) is arranged (a) to vary the control of the operation of the modules of the cluster on the basis of the determined measures of performance of all the modules and the global performance targets, and/or arranged (b) to take remedial action in response to the global performance targets not being achievable on the basis of the determined measures of performance of all the modules.
A blade mounting structure of a lawn mower, which comprises a blade holder (21; 70; 80; 90) including a shaft-mounted section connected to an output shaft of a power source, and a blade mounting section having a grass cutting blade mounted thereto, the blade holder (21; 70; 80; 90) further including a connecting leg section (35; 72; 82; 92) located between the shaft-mounted section and the blade mounting section and interconnecting the shaft-mounted section and the blade mounting section, characterized in that the connecting leg section has a wall thickness dimension gradually decreasing in a direction from the shaft-mounted section toward the blade mounting section.
A compound of general formula I wherein: 0 ≤ n ≤ 4 n is an integer Y represents OH, Cl, Br, I, NO 3, BF 4, C 6 H 5 O 7, CH 3 CO 2, CF 3 CO 2 or -OCH 3, for use to promote cicatrization and/or for preventing or treating microbial infections. 0 ≤ n ≤ 4 n is an integer Y represents OH, Cl, Br, I, NO 3, BF 4, C 6 H 5 O 7, CH 3 CO 2, CF 3 CO 2 or -OCH 3, for use to promote cicatrization and/or for preventing or treating microbial infections.
Device for the contactlessly determining, i.e. measuring, the body temperature of a free-roaming animal, in particular a farm animal, in an enclosure or in open land and that does not constantly visit specific feeding places or milking parlours, wherein the device comprises: - a locating unit to initially locate animals to be measured even in a large area such as open land, a pasture or an enclosure, - an animal identification means, - a non-contact temperature sensor for measuring the surface temperature at at least one measuring point on the body of the animal, - a sensor vehicle, which supports the temperature sensor, for approaching the animal, - an evaluation unit which is connected to the temperature sensor by means of signal technology and detects the surface temperature measured by the temperature sensor, wherein the evaluation unit is designed to assign and store temperature data from a specific measurement to a specific animal, - the temperature sensor comprises at least two sensor elements (20a, b) which are oriented in different directions from the sensor vehicle so that they can measure the surface temperature at different measuring points (6a, b) on the body of the animal or from different directions when the sensor vehicle is in the same position, - the plurality of temperature sensors are designed to be individually controllable with regard to their measuring direction. - a locating unit to initially locate animals to be measured even in a large area such as open land, a pasture or an enclosure, - an animal identification means, - a non-contact temperature sensor for measuring the surface temperature at at least one measuring point on the body of the animal, - a sensor vehicle, which supports the temperature sensor, for approaching the animal, - an evaluation unit which is connected to the temperature sensor by means of signal technology and detects the surface temperature measured by the temperature sensor, wherein the evaluation unit is designed to assign and store temperature data from a specific measurement to a specific animal, - the temperature sensor comprises at least two sensor elements (20a, b) which are oriented in different directions from the sensor vehicle so that they can measure the surface temperature at different measuring points (6a, b) on the body of the animal or from different directions when the sensor vehicle is in the same position, - the plurality of temperature sensors are designed to be individually controllable with regard to their measuring direction.
A docking station for receiving a container, in particular a waste container, having a cavity enclosed on all sides, the container having a first inductively heatable heating element, the docking station being arranged to generate an electromagnetic field for heating an inductively heatable heating element, characterised in that the docking station has means (28, 30) for preventing bursting in the event of overpressure in the received container up to at least 3 barg.
Method for dimensioning a cell of a mobile telecommunications network suitable for managing data calls associated with data terminals having different terminal capabilities, wherein said data calls belong to a plurality of data traffic streams, each data traffic stream being associated with a different terminal capability, wherein the cell is characterised by a plurality of statuses, each status of said plurality of statuses being represented by a number of users belonging to said data traffic streams, the method being characterised by the following steps: - limiting the number of said plurality of statuses associated with said cell; - determining, for each status of the limited number of said plurality of statuses, medium death frequencies of data calls by considering determined user access configurations to the cell, each determined user access configuration having a different repartition of frequency of death of data calls; - determining a global set of cell status probabilities for said cell on the basis of arrival frequencies and of the determined medium death frequencies of data calls; - dimensioning said cell on the basis of said determined global set of cell status probabilities. - limiting the number of said plurality of statuses associated with said cell; - determining, for each status of the limited number of said plurality of statuses, medium death frequencies of data calls by considering determined user access configurations to the cell, each determined user access configuration having a different repartition of frequency of death of data calls; - determining a global set of cell status probabilities for said cell on the basis of arrival frequencies and of the determined medium death frequencies of data calls; - dimensioning said cell on the basis of said determined global set of cell status probabilities.
Method for moving a combination (10, 11) backwards into an area, wherein the combination (10, 11) comprises - a propelled vehicle and - an implement mechanically coupled with the vehicle by means of a coupling assembly (12, 13), wherein the vehicle comprises a steering means arranged to change the traveling direction (γ) of the propelled vehicle, wherein the implement is pivotal with respect to the vehicle around a pivoting axis being perpendicular to the ground, and wherein the method comprises the steps that - the propelled vehicle moves the combination (10, 11) backwards into the area along a path and - the implement is in front of the vehicle when the combination (10, 11) is moved backwards, wherein at least once the sequence is performed while the combination (10, 11) is moved backwards that - a pivoting angle sensor measures a value indicative of the pivoting angle (α, α, α,...) of the implement with respect to the vehicle or of the change of this pivoting angle (α, α, α,...), - a distance sensor (3.1, 3.2,...) measures a value indicative of the distance (E, F) to a border of the area in at least one direction, - a path sensor measures a value indicative of the length of a path along which the implement is moved, - a computer automatically calculates a required change (β', β', β',...) of the travelling direction (γ) of the vehicle, and - a signal indicative of the required change (β', β', β'...) of the travelling direction (γ) is output, wherein the computer calculates the required change (β', β', β',...) on the basis of - said measured pivoting angle (α, α, α,...) or said pivoting angle change, - said measured length of the path, and - said measured distance (E, F), characterized in that - a propelled vehicle and - an implement mechanically coupled with the vehicle by means of a coupling assembly (12, 13), - the propelled vehicle moves the combination (10, 11) backwards into the area along a path and - the implement is in front of the vehicle when the combination (10, 11) is moved backwards, - a pivoting angle sensor measures a value indicative of the pivoting angle (α, α, α,...) of the implement with respect to the vehicle or of the change of this pivoting angle (α, α, α,...), - a distance sensor (3.1, 3.2,...) measures a value indicative of the distance (E, F) to a border of the area in at least one direction, - a path sensor measures a value indicative of the length of a path along which the implement is moved, - a computer automatically calculates a required change (β', β', β',...) of the travelling direction (γ) of the vehicle, and - a signal indicative of the required change (β', β', β'...) of the travelling direction (γ) is output, - said measured pivoting angle (α, α, α,...) or said pivoting angle change, - said measured length of the path, and - said measured distance (E, F),
A prepreg comprising: a fiber reinforcement; and a curable resin comprising: 25 to 35 weight percent tetrafunctional epoxy resin based on the total weight of the curable resin; 18 to 28 weight percent difunctional epoxy resin based on the total weight of the curable resin; 4 to 18 weight percent polyether sulfone based on the total weight of the curable resin; 2 to 10 weight percent polyamide 12 particles based on the total weight of the curable resin; 2 to 10 weight percent polyamide 11 particles based on the total weight of the curable resin: 1 to 8 weight percent potato shaped graphite particles based on the total weight of the curable resin; and 17.4 to 27.4 weight percent of a curing agent for said curable resin based on the total weight of the curable resin. a fiber reinforcement; and a curable resin comprising: 25 to 35 weight percent tetrafunctional epoxy resin based on the total weight of the curable resin; 18 to 28 weight percent difunctional epoxy resin based on the total weight of the curable resin; 4 to 18 weight percent polyether sulfone based on the total weight of the curable resin; 2 to 10 weight percent polyamide 12 particles based on the total weight of the curable resin; 2 to 10 weight percent polyamide 11 particles based on the total weight of the curable resin: 1 to 8 weight percent potato shaped graphite particles based on the total weight of the curable resin; and 17.4 to 27.4 weight percent of a curing agent for said curable resin based on the total weight of the curable resin. 25 to 35 weight percent tetrafunctional epoxy resin based on the total weight of the curable resin; 18 to 28 weight percent difunctional epoxy resin based on the total weight of the curable resin; 4 to 18 weight percent polyether sulfone based on the total weight of the curable resin; 2 to 10 weight percent polyamide 12 particles based on the total weight of the curable resin; 2 to 10 weight percent polyamide 11 particles based on the total weight of the curable resin: 1 to 8 weight percent potato shaped graphite particles based on the total weight of the curable resin; and 17.4 to 27.4 weight percent of a curing agent for said curable resin based on the total weight of the curable resin. 1 to 8 weight percent potato shaped graphite particles based on the total weight of the curable resin; and 17.4 to 27.4 weight percent of a curing agent for said curable resin based on the total weight of the curable resin.
An antenna, comprising: a plurality of waveguide antenna elements arranged in a first array configured to operate with a first polarization; a plurality of waveguide output ports arranged in a second array configured to operate with a second polarization, wherein the second polarization is different from the first polarization; and a polarization-rotating layer (100, 500, 700) with channels (106, 506, 702) defined therein, wherein the polarization-rotating layer is disposed between the waveguide antenna elements and the waveguide output ports, wherein the channels are oriented at a first angle with respect to the waveguide antenna elements and at a second angle with respect to the waveguide output ports, wherein the channels comprise through-holes in the polarization-rotating layer, wherein not all of the through-holes have the same cross-sectional shape, wherein the channels are configured to receive input electromagnetic waves having the first polarization and transmit output electromagnetic waves having a first intermediate polarization, and wherein the waveguide output ports are configured to receive input electromagnetic waves and radiate electromagnetic waves having the second polarization. a plurality of waveguide antenna elements arranged in a first array configured to operate with a first polarization; a plurality of waveguide output ports arranged in a second array configured to operate with a second polarization, wherein the second polarization is different from the first polarization; and a polarization-rotating layer (100, 500, 700) with channels (106, 506, 702) defined therein, wherein the polarization-rotating layer is disposed between the waveguide antenna elements and the waveguide output ports, wherein the channels are oriented at a first angle with respect to the waveguide antenna elements and at a second angle with respect to the waveguide output ports, wherein the channels comprise through-holes in the polarization-rotating layer, wherein not all of the through-holes have the same cross-sectional shape, wherein the channels are configured to receive input electromagnetic waves having the first polarization and transmit output electromagnetic waves having a first intermediate polarization, and wherein the waveguide output ports are configured to receive input electromagnetic waves and radiate electromagnetic waves having the second polarization.