mhurhangee/ep-ind-claims huggingface dataset:
Hydraulic steering unit comprising a supply port arrangement having a supply port and a return port, a working port arrangement having two working ports (L, R), a steering valve arrangement arranged between the supply port arrangement and the working port arrangement and having two valve elements (32, 33) arranged in a housing (30, 38, 39) and being movable in relation to each other to change area characteristics of orifices (A13/14), and a measuring motor arranged in a line between the steering valve arrangement and one of the working ports (L, R), characterized in that backpressure means are provided generating a backpressure on the measuring motor, wherein the backpressure means are controlled by the valve elements (32, 33), and friction means (43, 43') are provided between one of the valve elements and the housing (30, 38, 39) or a rotating part of the measuring motor and the housing (30, 38, 39), respectively.
A computer-implemented method for setting up an application in a heterogeneous distributed environment including multiple computer systems, the method comprising: a. defining the application in terms of constituent nodes, each said node representing a part thereof that is to be deployed into a single one of said computer systems that satisfies deployment requirements of that node; b. defining properties identifying deployment requirements of, and application level instantiation logic for, each said node; characterized in that the method further comprises: c. exposing, for each said node, any interfaces that are invokable by one or more other nodes; d. identifying, for each said node, any interfaces that it will invoke on one or more other nodes; and e. matching exposed interfaces and complementary invokable interfaces; and in that f. the application is a cloud application, the heterogeneous distributed environment is a heterogeneous distributed cloud provider environment and the computer systems are operated by different cloud providers. a. defining the application in terms of constituent nodes, each said node representing a part thereof that is to be deployed into a single one of said computer systems that satisfies deployment requirements of that node; b. defining properties identifying deployment requirements of, and application level instantiation logic for, each said node; characterized in that the method further comprises: c. exposing, for each said node, any interfaces that are invokable by one or more other nodes; d. identifying, for each said node, any interfaces that it will invoke on one or more other nodes; and e. matching exposed interfaces and complementary invokable interfaces; and in that f. the application is a cloud application, the heterogeneous distributed environment is a heterogeneous distributed cloud provider environment and the computer systems are operated by different cloud providers.
A method of preparing a white light emitting device which comprises: preparing a phosphor material comprising a garnet fluorescent material activated with cerium which contains at least one element selected from Y, Lu, Sc, La, Gd and Sm and at least one element selected from Al, Ga and In; mixing the phosphor material with a translucent resin comprising one selected from the group of epoxy resin, urea resin and silicone to make a slurry; pouring the slurry on a mount lead or a casing whereon a light-emitting diode chip having a gallium nitride based semiconductor is mounted; curing the slurry to make a coating which contains the phosphor material, this coating covering directly or indirectly the LED chip, this coating absorbing a part of a blue light emitted by the LED chip and emitting light of wave lengths different from that of the absorbed blue light, the combination of the light emitted by the coating and of the light from the LED chip not absorbed in the coating making up white light. preparing a phosphor material comprising a garnet fluorescent material activated with cerium which contains at least one element selected from Y, Lu, Sc, La, Gd and Sm and at least one element selected from Al, Ga and In; mixing the phosphor material with a translucent resin comprising one selected from the group of epoxy resin, urea resin and silicone to make a slurry; pouring the slurry on a mount lead or a casing whereon a light-emitting diode chip having a gallium nitride based semiconductor is mounted; curing the slurry to make a coating which contains the phosphor material, this coating covering directly or indirectly the LED chip, this coating absorbing a part of a blue light emitted by the LED chip and emitting light of wave lengths different from that of the absorbed blue light, the combination of the light emitted by the coating and of the light from the LED chip not absorbed in the coating making up white light.
A method for the production of cheese crackers, having the steps of: - providing a raw cheese mass; - providing a microwave oven; - portioning the raw cheese mass in an ovenproof baking form; - transferring the portioned raw cheese mass into the microwave oven; - baking the portioned raw cheese mass in the microwave oven; and - removing at least one baked, portioned cheese cracker, characterized in that the step of baking is carried out using a power output for the microwave oven of at least 2800 W, preferably of 2800 W to 3200 W and more preferably of at least 3200 W, whereupon fat is released extremely rapidly from the raw cheese mass because of the power output and the raw cheese mass becomes dry/crisp extremely rapidly without intermediate products being able to be formed. - providing a raw cheese mass; - providing a microwave oven; - portioning the raw cheese mass in an ovenproof baking form; - transferring the portioned raw cheese mass into the microwave oven; - baking the portioned raw cheese mass in the microwave oven; and - removing at least one baked, portioned cheese cracker,
An ion chromatographic method comprising the steps of: (a) injecting sample ionic species into an aqueous eluent stream from an eluent source, (b) chromatographically separating said sample ionic species in said eluent stream by flowing the same through chromatographic separation medium to exit as a chromatography effluent, (c) flowing said chromatography effluent through a detector to detect said separated sample ionic species in said chromatography effluent to exit as a detector effluent stream, (d) catalytically combining hydrogen and oxygen gases or catalytically decomposing hydrogen peroxide, or both, in said detector effluent stream by flowing it through a catalytic gas elimination chamber, to form water and reduce the gas content of the eluent effluent stream exiting said gas elimination chamber, and (e) recycling said catalytic gas elimination chamber effluent stream from said catalytic gas elimination chamber to said chromatography separation column via a recycle conduit (30, 34, 42), characterized by the residence time for flow of said detector effluent stream between said detector and said catalytic gas elimination chamber being at least one minute to facilitate decomposition of unstable oxidative compounds. (a) injecting sample ionic species into an aqueous eluent stream from an eluent source, (b) chromatographically separating said sample ionic species in said eluent stream by flowing the same through chromatographic separation medium to exit as a chromatography effluent, (c) flowing said chromatography effluent through a detector to detect said separated sample ionic species in said chromatography effluent to exit as a detector effluent stream, (d) catalytically combining hydrogen and oxygen gases or catalytically decomposing hydrogen peroxide, or both, in said detector effluent stream by flowing it through a catalytic gas elimination chamber, to form water and reduce the gas content of the eluent effluent stream exiting said gas elimination chamber, and (e) recycling said catalytic gas elimination chamber effluent stream from said catalytic gas elimination chamber to said chromatography separation column via a recycle conduit (30, 34, 42), characterized by the residence time for flow of said detector effluent stream between said detector and said catalytic gas elimination chamber being at least one minute to facilitate decomposition of unstable oxidative compounds.
Apparatus for obtaining fruit juice and/or fruit pulp from citrus fruit, in particular a citrus juicer, comprising a drive mechanism provided with a drive shaft and a pressing body provided on the drive shaft, said pressing body comprising a dome-shaped pressing surface comprising a top and a base, as well as ribs extending between the top and the base, wherein a cross section of the pressing body at right angles to the central axis of the pressing body has a substantially zigzag-shaped periphery, wherein each rib is provided with a flank which slopes steeply from the circumscribed circle of the periphery and a flank which slopes gradually from the circumscribed circle of the periphery, wherein the angle which is included between the circumscribed circle and the steeply sloping flank is greater than the angle included by the circumscribed circle and the gradually sloping flank, and wherein the steeply sloping flank and the gradually sloping flank of adjoining ribs along the periphery face each other, characterised in that the drive mechanism is configured to drive the drive shaft to rotate in two mutually opposite directions.
A sample extraction device comprising: a swab shaft comprising a first end, a stopper, and a second end; a lid attached to the first end of the swab shaft, wherein the lid is slidable along the swab shaft; an O-ring on the inside of the lid; a swab tip at the second end of the swab shaft; and a sample extraction container comprising a liquid medium and a squeezing structure, wherein the squeezing structure comprises an opening smaller than the swab tip; wherein the lid is configured to attach to the sample extraction container and the stopper is configured to make contact with the bottom of the lid as the swab shaft is pulled out through the lid by sliding; and wherein the O-ring is configured to be crushed upon tightening of the lid on the sample extraction container, so as to seal the lid against the sample extraction container and the swab shaft. a swab shaft comprising a first end, a stopper, and a second end; a lid attached to the first end of the swab shaft, wherein the lid is slidable along the swab shaft; an O-ring on the inside of the lid; a swab tip at the second end of the swab shaft; and a sample extraction container comprising a liquid medium and a squeezing structure, wherein the squeezing structure comprises an opening smaller than the swab tip; wherein the lid is configured to attach to the sample extraction container and the stopper is configured to make contact with the bottom of the lid as the swab shaft is pulled out through the lid by sliding; and wherein the O-ring is configured to be crushed upon tightening of the lid on the sample extraction container, so as to seal the lid against the sample extraction container and the swab shaft.
A method for preparing a silazane compound, comprising the step of reacting a halosilane compound having the general formula: R 1 n SiX (4-n) wherein R 1 is each independently hydrogen or a substituted or unsubstituted monovalent hydrocarbon group of 1 to 20 carbon atoms, X is a halogen atom, n is an integer of 0 to 3, and R 1 groups bond together to form a C 2 -C 20 ring with the silicon atom to which they are attached when n is 2 or 3, with an amino-containing compound having the general formula: R 2 R 3 NH wherein R 2 and R 3 are independently a substituted or unsubstituted monovalent hydrocarbon group of 1 to 20 carbon atoms, or the general formula: wherein R 4 is a divalent organic group of 1 to 20 carbon atoms which may contain a heteroatom, in a solvent which is the same silazane compound as the target product.
An adhesive comprising a methacrylate copolymer, wherein the methacrylate copolymer includes: 45% to 49% by weight of at least one methacrylate monomer component; 45% to 49% by weight of at least one acrylic or silicone monomer component, and 2% to 10% by weight acrylic acid or 2-hydroxyethyl acrylate; wherein the adhesive is gamma resistant. 45% to 49% by weight of at least one methacrylate monomer component; 45% to 49% by weight of at least one acrylic or silicone monomer component, and 2% to 10% by weight acrylic acid or 2-hydroxyethyl acrylate;
An electronic device comprising: a sensor layer including a first channel including first electrodes and a second channel including second electrodes; and a control circuit configured to detect touch information corresponding to an input of an external object to the sensor layer based on a change in capacitance between at least one of the first electrodes and at least one of the second electrodes, wherein the touch information includes a position of the input with respect to the sensor layer, characterized in that the control circuit is further configured to, based on detecting the touch information, detect pressure information corresponding to the input based on a difference between a resistance of a target electrode and a resistance of a reference electrode among the first electrodes and the second electrodes, in response to the input to at least one channel of the first channel or the second channel, wherein the target electrode corresponds to the position of the input included in the detected touch information, and wherein the reference electrode is set to be the electrode farthest away from the target electrode. a sensor layer including a first channel including first electrodes and a second channel including second electrodes; and a control circuit configured to detect touch information corresponding to an input of an external object to the sensor layer based on a change in capacitance between at least one of the first electrodes and at least one of the second electrodes, wherein the touch information includes a position of the input with respect to the sensor layer, characterized in that the control circuit is further configured to, based on detecting the touch information, detect pressure information corresponding to the input based on a difference between a resistance of a target electrode and a resistance of a reference electrode among the first electrodes and the second electrodes, in response to the input to at least one channel of the first channel or the second channel, wherein the target electrode corresponds to the position of the input included in the detected touch information, and wherein the reference electrode is set to be the electrode farthest away from the target electrode.
A diagnostic method for analysing the operation of at least part of a production line in the tobacco industry by means of a probe having the shape of a smokers' article and provided with at least one local sensor, a processor, a memory, a data transmission module and an electrical power supply, wherein the line has a control unit comprising a processor and at least one line sensor, in communication with the control unit and configured to measure respective machine parameters, representing the operation of at least one element of the line. the method comprising the following steps: - generating an activation signal; - transmitting the activation signal to the processor of the probe at a starting instant; - transmitting the activation signal to the processor of the control unit at said starting instant; - receiving in an electronic database a set of probe data acquired by the probe, in response to the activation signal received, between the starting instant and an end of acquisition instant; - receiving in the electronic database a set of line data acquired by the control unit, in response to the activation signal received, between the starting instant and the end of acquisition instant; - temporally correlating the data sets of the probe and of the line, wherein the transmission of the activation signal to the processor of the probe is synchronous to the transmission of the activation signal to the processor of the control unit, wherein said set of probe data is acquired from the probe, as the probe moves through said at least a part of the production line, and wherein the probe acquires at least a probe parameter through at least a local sensor. - generating an activation signal; - transmitting the activation signal to the processor of the probe at a starting instant; - transmitting the activation signal to the processor of the control unit at said starting instant; - receiving in an electronic database a set of probe data acquired by the probe, in response to the activation signal received, between the starting instant and an end of acquisition instant; - receiving in the electronic database a set of line data acquired by the control unit, in response to the activation signal received, between the starting instant and the end of acquisition instant; - temporally correlating the data sets of the probe and of the line, wherein the transmission of the activation signal to the processor of the probe is synchronous to the transmission of the activation signal to the processor of the control unit, wherein said set of probe data is acquired from the probe, as the probe moves through said at least a part of the production line, and wherein the probe acquires at least a probe parameter through at least a local sensor.
A cartridge chip for use with an imaging cartridge installed in an imaging device, the cartridge chip comprising: a memory element storing imaging cartridge data; and a controller for controlling the operation of the cartridge chip, characterized in that the cartridge chip is adapted for use in more than one type of imaging cartridge, wherein the controller is configured to determine if the imaging cartridge is a first type of imaging cartridge that is installed in a first type of imaging device or a second type of imaging cartridge that is installed in a second type of imaging device, and wherein the controller is configured to operate the cartridge chip in a first mode of operation if the imaging cartridge is determined to be installed in the first type of imaging device and wherein the controller is configured to operate the cartridge chip in a second mode of operation if the imaging cartridge is determined to be installed in the second type of imaging device, wherein the memory element is communicatively coupled to the controller; wherein the controller is adapted for: monitoring the sequence of communication signals received by the cartridge chip from the imaging device; determining if the imaging cartridge is the first type of imaging cartridge installed in the first type of imaging device or the second type of imaging cartridge installed in the second type of imaging device based on the sequence of the communication signals; and monitoring a sequence of read or write operations to the memory element of the cartridge chip. a memory element storing imaging cartridge data; and a controller for controlling the operation of the cartridge chip, characterized in that the cartridge chip is adapted for use in more than one type of imaging cartridge, wherein the controller is configured to determine if the imaging cartridge is a first type of imaging cartridge that is installed in a first type of imaging device or a second type of imaging cartridge that is installed in a second type of imaging device, and wherein the controller is configured to operate the cartridge chip in a first mode of operation if the imaging cartridge is determined to be installed in the first type of imaging device and wherein the controller is configured to operate the cartridge chip in a second mode of operation if the imaging cartridge is determined to be installed in the second type of imaging device, wherein the memory element is communicatively coupled to the controller; wherein the controller is adapted for: monitoring the sequence of communication signals received by the cartridge chip from the imaging device; determining if the imaging cartridge is the first type of imaging cartridge installed in the first type of imaging device or the second type of imaging cartridge installed in the second type of imaging device based on the sequence of the communication signals; and monitoring a sequence of read or write operations to the memory element of the cartridge chip.
A method, comprising: (a) performing a common network entry procedure using a primary radio frequency carrier (#1) by a mobile station; (b) exchanging multi-carrier capability information with a base station; and (c) enabling multi-carrier transmission over multiple frequency channels if both the mobile station and the base station support multi-carrier capability, characterized in that the method is performed in an OFDM wireless network, the method, further comprising: (d) performing ranging using a secondary carrier (#2) before enabling multi-carrier transmission; and (e) receiving a ranging response for the secondary carrier (#2), wherein the ranging response for the secondary carrier (#2) is replied through the primary carrier (#1). (a) performing a common network entry procedure using a primary radio frequency carrier (#1) by a mobile station; (b) exchanging multi-carrier capability information with a base station; and (c) enabling multi-carrier transmission over multiple frequency channels if both the mobile station and the base station support multi-carrier capability, (d) performing ranging using a secondary carrier (#2) before enabling multi-carrier transmission; and (e) receiving a ranging response for the secondary carrier (#2),
Ground treatment apparatus for grounds with grass growth, in particular grounds of sport and leisure facilities in which conduits and specifically pipe conduits (30, 50) of a ground conditioning device are laid, wherein the ground treatment apparatus (12; 152) comprises a traveling device and comprises a plurality of ground treatment elements that are held on a support device so as to be movable by way of a lifting device and are insertable into the ground and are extractable therefrom, characterized in that the ground treatment apparatus (12; 152) comprises a detection device for determining the location of the conduits in the ground relative to the ground treatment apparatus (12; 152) in at least one spatial direction, in that the ground treatment apparatus (12; 152) is of self-propelled configuration, wherein the ground treatment apparatus (12; 152) can travel relative to the conduits and the ground treatment elements are insertable into the ground in dependence on the location of the conduits in the ground.
A method for ingesting data records, the method comprising: retrieving content-related descriptors, each descriptor being associated with a value classification; retrieving a data record to be ingested; assigning a value classification to the data record based on the descriptors, wherein the descriptors and the associated value classifications are obtained by analyzing usage of previously ingested data records; and ingesting the data record in accordance with the assigned value classification, wherein ingesting the data record comprises selecting one of a plurality of transmission channels for the data record based on the value classification, wherein the transmission channels differ in bandwidth and transportation time. retrieving content-related descriptors, each descriptor being associated with a value classification; retrieving a data record to be ingested; assigning a value classification to the data record based on the descriptors, wherein the descriptors and the associated value classifications are obtained by analyzing usage of previously ingested data records; and ingesting the data record in accordance with the assigned value classification, wherein ingesting the data record comprises selecting one of a plurality of transmission channels for the data record based on the value classification, wherein the transmission channels differ in bandwidth and transportation time.