mhurhangee/ep-ind-claims huggingface dataset:
A system for installing a windmill, comprising: a base having at least one platform leg extending therethrough for providing support thereto, characterized by: a hoisting platform operatively connectable to and positionable along the at least one platform leg; and a carrier for receiving at least one component of the windmill, the carrier positionable about the hoisting platform and movable thereby whereby the at least one component of the windmill is positionable for installation. a hoisting platform operatively connectable to and positionable along the at least one platform leg; and a carrier for receiving at least one component of the windmill, the carrier positionable about the hoisting platform and movable thereby whereby the at least one component of the windmill is positionable for installation.
A method comprising: receiving, at a gateway mobile location centre from a presence enabler storing presence information for one or more subscribers, presence information indicating availability conditions of a first user to communicate with others wherein the presence information is received each time the presence information for the first user changes; receiving, at the gateway mobile location centre, a request for location data concerning the first user determining, at the gateway mobile location centre on the basis of the availability conditions of the first user to communicate with others, to provide location data in response to said request, if said availability conditions to communicate with others are met. receiving, at a gateway mobile location centre from a presence enabler storing presence information for one or more subscribers, presence information indicating availability conditions of a first user to communicate with others wherein the presence information is received each time the presence information for the first user changes; receiving, at the gateway mobile location centre, a request for location data concerning the first user determining, at the gateway mobile location centre on the basis of the availability conditions of the first user to communicate with others, to provide location data in response to said request, if said availability conditions to communicate with others are met.
Method for operating a combined gas and steam turbine system comprising a gas turbine, a waste heat steam generator which is located downstream of the gas turbine in the direction of flow of the exhaust gas or fuel gas and includes at least one evaporator heating area through which a moving fluid can flow, and a steam turbine which is located downstream of the waste heat steam generator in the direction of flow of the moving fluid, in which the moving fluid is fed to the waste heat steam generator in the form of feed water, wherein a primary control loop is provided for a predictive control of the feed water flow rate, and wherein taking into account the heat stored in the components in the evaporator heating area, a primary desired value for the feed water flow rate is determined on the basis of a desired overheating value that is characteristic of the temperature by which the moving fluid exceeds its boiling point as the moving fluid exits from the evaporator heating area and on the basis of a heat flow parameter that is characteristic of the heat flow transferred from the fuel gas to the moving fluid via the evaporator heating area, and the feed water flow rate is adjusted accordingly, characterised in that, in order to activate a temporarily available instantaneous power reserve the desired overheating value is lowered from a normal value defined for the stationary operation of the gas and steam turbine system at a comparatively high efficiency to a smaller activation value.
An image processing device comprising: a reception unit configured to receive a packet generated in an image output device provided in the same apparatus and output from the image output device, and having a header including header information including first frame information indicating whether pixel data included in a payload is pixel data of a head line of one frame, second frame information indicating whether pixel data included in a payload is pixel data of a terminal end line of one frame, first line information indicating whether pixel data included in a payload is data of an effective pixel, and second line information indicating a line number of a line made of pixel data included in a payload, and an error detection code to be used for error detection of the header information, the header being added to a payload including pixel data for one line configuring an image obtained by imaging by an imaging unit of the image output device; and an image processing unit configured to process the image configured from a line made of the pixel data included in the payload of the packet received by the reception unit wherein a start code indicating a start position of the packet is added to a head of the packet, and an end code indicating an end position of the packet is added to a tail end of the packet, and the reception unit is configured to receive data from when the start code is received to when the end code is received as data of the packet. a reception unit configured to receive a packet generated in an image output device provided in the same apparatus and output from the image output device, and having a header including header information including first frame information indicating whether pixel data included in a payload is pixel data of a head line of one frame, second frame information indicating whether pixel data included in a payload is pixel data of a terminal end line of one frame, first line information indicating whether pixel data included in a payload is data of an effective pixel, and second line information indicating a line number of a line made of pixel data included in a payload, and an error detection code to be used for error detection of the header information, the header being added to a payload including pixel data for one line configuring an image obtained by imaging by an imaging unit of the image output device; and an image processing unit configured to process the image configured from a line made of the pixel data included in the payload of the packet received by the reception unit wherein a start code indicating a start position of the packet is added to a head of the packet, and an end code indicating an end position of the packet is added to a tail end of the packet, and the reception unit is configured to receive data from when the start code is received to when the end code is received as data of the packet.
Electric motor which comprises: an external stator; an internal rotor, which is rotatably arranged in the external stator and has a laminated core (200; 200'; 200") which comprises a plurality of rotor laminations (201, 202; 201', 201") and in which at least one first cutout and at least one second cutout are provided, wherein the first cutout is associated with a rotor magnet arranged therein, wherein the second cutout is associated with a jamming element arranged therein, wherein a clamping member (692, 694) is provided between the first cutout and the second cutout, and wherein the jamming element and the second cutout are designed to: - allow the jamming element to be supported on the laminated core (200; 200'; 200"), - apply a force to the clamping member (692, 694) in a direction towards the rotor magnets in order to clamp the rotor magnets in the first cutout, wherein the laminated core (200; 200'; 200") has a through-opening for receiving a shaft, wherein the second cutout is formed by the through-opening, and wherein the jamming element is formed by the shaft. an external stator; an internal rotor, which is rotatably arranged in the external stator and has a laminated core (200; 200'; 200") which comprises a plurality of rotor laminations (201, 202; 201', 201") and in which at least one first cutout and at least one second cutout are provided, wherein the first cutout is associated with a rotor magnet arranged therein, wherein the second cutout is associated with a jamming element arranged therein, wherein a clamping member (692, 694) is provided between the first cutout and the second cutout, and wherein the jamming element and the second cutout are designed to: - allow the jamming element to be supported on the laminated core (200; 200'; 200"), - apply a force to the clamping member (692, 694) in a direction towards the rotor magnets in order to clamp the rotor magnets in the first cutout, wherein the laminated core (200; 200'; 200") has a through-opening for receiving a shaft, wherein the second cutout is formed by the through-opening, and wherein the jamming element is formed by the shaft. - allow the jamming element to be supported on the laminated core (200; 200'; 200"), - apply a force to the clamping member (692, 694) in a direction towards the rotor magnets
A method for selecting a lot of mesenchymal stromal cells (MSCs) with a high proliferative capacity, from among a plurality of lots of bone marrow suspension; the method comprising: separately plating a sample of cells from each lot of bone marrow suspension at low density; culturing the separately plated cells to form single colonies; measuring, for each lot of MSCs: (i) the degree of differentiation of the cells in the colonies, wherein the degree of differentiation is determined by measuring levels of alpha-smooth muscle actin (aSMA), transforming growth factor beta (TGF-β) and/or the ED-A domain of fibronectin; wherein lower αSMA, TGF-β and/or ED-A domain levels are positively correlated with a lower degree of differentiation; and (ii) the percentage of large colonies in each culture, wherein a large colony is a colony that: (a) has a level of LDH activity of 4.0 milliUnits/ml or greater; or (b) contains at least 1,000 cells; and selecting a lot or lots whose cultures exhibit: (i) a lower degree of differentiation compared to other lots, and (ii) a higher percentage of large colonies compared to other lots; wherein said lot or lots whose cultures have a lower degree of differentiation and higher percentage of large colonies, compared to other lots being tested, have high proliferative capacity. separately plating a sample of cells from each lot of bone marrow suspension at low density; culturing the separately plated cells to form single colonies; measuring, for each lot of MSCs: (i) the degree of differentiation of the cells in the colonies, wherein the degree of differentiation is determined by measuring levels of alpha-smooth muscle actin (aSMA), transforming growth factor beta (TGF-β) and/or the ED-A domain of fibronectin; wherein lower αSMA, TGF-β and/or ED-A domain levels are positively correlated with a lower degree of differentiation; and (ii) the percentage of large colonies in each culture, wherein a large colony is a colony that: (a) has a level of LDH activity of 4.0 milliUnits/ml or greater; (i) the degree of differentiation of the cells in the colonies, wherein the degree of differentiation is determined by measuring levels of alpha-smooth muscle actin (aSMA), transforming growth factor beta (TGF-β) and/or the ED-A domain of fibronectin; wherein lower αSMA, TGF-β and/or ED-A domain levels are positively correlated with a lower degree of differentiation; and (ii) the percentage of large colonies in each culture, wherein a large colony is a colony that: (a) has a level of LDH activity of 4.0 milliUnits/ml or greater; (a) has a level of LDH activity of 4.0 milliUnits/ml or greater; (i) a lower degree of differentiation compared to other lots, and (ii) a higher percentage of large colonies compared to other lots;
A mold, in particular an injection mold, comprising a plurality of blocks (11, 13) that, in an assembled position, define a mold cavity, the mold being characterized in that it includes at least one pusher, said pusher being configured to be housed in a first block of said plurality, in a side facing the mold cavity, and to present a first surface flush with the mold cavity when the pusher is housed in said first block, in that the mold also includes actuator means (23, 25) enabling the pusher to be moved relative to the first block, and sealing means (19, 27) configured to isolate the actuator means (23, 25) from the mold cavity, in that, when the blocks (11, 13) are in the assembled position, a second surface of said pusher is in contact with a second block other than the first block, and in that the actuator means (23, 25) are accessible via said second surface of the pusher.
An implantable electrode assembly for delivering electrical stimulation signals to tissue of a patient, the assembly comprising: an implantable mesh comprising a plurality of electrically conductive wires; and a plurality of electrodes each comprising first and second members (130, 132) fastened together around one of the electrically conductive wires, and a stimulation surface, wherein an electrically conductive path is formed between the stimulation surface and the wire; charactised by the electrically conductive wires each comprising an electrically insulative jacket surrounding an electrically conductive core; at least one of the first and second members (130, 132) comprising a piercing member configured to pierce the insulative jacket and to contact the conductive core of the wire, to which the first and second members (130, 132) are fastened; and the piercing member being configured to form a portion of the electrically conductive path. an implantable mesh comprising a plurality of electrically conductive wires; and a plurality of electrodes each comprising first and second members (130, 132) fastened together around one of the electrically conductive wires, and a stimulation surface, wherein an electrically conductive path is formed between the stimulation surface and the wire;
Method for monitoring a state of an electrical energy store of a rechargeable battery pack, wherein the method comprises the following steps: - determining a number of charging cycles to which the energy store was subjected; - wherein the determined number of charging cycles is incremented when coherent charging of the energy store to a predetermined charging target is detected, and - providing the number to a user of the energy store by means of a device of the rechargeable battery pack which comprises an optical or acoustic output device. - determining a number of charging cycles to which the energy store was subjected; - wherein the determined number of charging cycles is incremented when coherent charging of the energy store to a predetermined charging target is detected, and - providing the number to a user of the energy store by means of a device of the rechargeable battery pack which comprises an optical or acoustic output device.
A die casting method comprising: supplying molten metal to a plunger sleeve; and advancing a plunger in the plunger sleeve, to inject the molten metal into dies (10, 20), wherein, when the molten metal is injected into the dies (10, 20), the plunger is once retracted before being advanced, and the plunger is kept accelerated until the plunger reaches a target maximum speed when the plunger retracted is advanced, the movement of the plunger being controlled by a controller. supplying molten metal to a plunger sleeve; and advancing a plunger in the plunger sleeve, to inject the molten metal into dies (10, 20), wherein, when the molten metal is injected into the dies (10, 20), the plunger is once retracted before being advanced, and the plunger is kept accelerated until the plunger reaches a target maximum speed when the plunger retracted is advanced, the movement of the plunger being controlled by a controller.
A tire comprising an elastomer-metal cord composite in a belt layer (105a, 105b) of the tire, the elastomer-metal cord composite obtained by coating, with an elastomer, a metal cord composed of a bundle of two to ten metal filaments that are parallelly aligned in a single row without being twisted together, wherein the metal filaments are patterned in the same patterning amount (h) at the same pitch (p), and the metal cord comprises at least one pair of adjacent metal filaments having different phases from each other. wherein the metal filaments are patterned in the same patterning amount (h) at the same pitch (p), and the metal cord comprises at least one pair of adjacent metal filaments having different phases from each other.
A capacitor (101C, 101D) having a capacitor main surface and a capacitor reverse surface and having a structure in which first inner electrode layers and second inner electrode layers are alternately laminated and arranged via a dielectric layer, and further including an inductor formed on the capacitor (101C, 101D); and a second capacitor formed in the capacitor (101C, 101D); wherein a conductor pattern is formed on the capacitor main surface, said conductor pattern being adapted for serving as the inductor; and characterised by a resistor formed on the capacitor (101C, 101D), wherein the resistor is electrically connected to a first terminal that is formed on the capacitor main surface; and wherein the second capacitor is electrically connected to a second terminal (285; T4) that is formed on the capacitor main surface through an interlayer-connecting via conductor.
Apparatus (10, 35, 71) for determining the elapsed time of movement and identifying each of a plurality of movable objects travelling or moving in separate lanes, said apparatus comprising: at least one laser beam transmitter (12, 48) for transmitting modulated laser beam signals across said lanes; a detector for detecting the interception by each said object of said transmitted laser beam by the receipt of respective reflected laser beam signals from each said object; and a processor means which is programmed to determine, from a laser distance measuring technique using the time between transmission of said laser beam signals and receipt by said detector of reflected signals from respective said objects, the lanes of said objects, and the identities of the objects based on their lanes, said processor means further programmed to determine from said received reflected laser beam signals a time that each object intercepts the laser beam and to determine said elapsed time of each said object from a start time and from the time that each object intercepts the beam. at least one laser beam transmitter (12, 48) for transmitting modulated laser beam signals across said lanes; a detector for detecting the interception by each said object of said transmitted laser beam by the receipt of respective reflected laser beam signals from each said object; and a processor means which is programmed to determine, from a laser distance measuring technique using the time between transmission of said laser beam signals and receipt by said detector of reflected signals from respective said objects, the lanes of said objects, and the identities of the objects based on their lanes, said processor means further programmed to determine from said received reflected laser beam signals a time that each object intercepts the laser beam and to determine said elapsed time of each said object from a start time and from the time that each object intercepts the beam.
A refractory metal core finishing method, comprising: performing a plurality of finishing operations (78,80,82,84A,84B) on a plurality of RMC samples; analyzing one or more properties of at least a portion of the plurality of RMC samples; and selecting a combination of finishing operations (78,80,82,84A,84B) for generating an RMC having desirable properties for manufacturing a part free from defects, wherein the plurality of finishing operations include a first harperizing process performed for a first amount of time and a second harperizing process performed for a second, different amount of time. performing a plurality of finishing operations (78,80,82,84A,84B) on a plurality of RMC samples; analyzing one or more properties of at least a portion of the plurality of RMC samples; and selecting a combination of finishing operations (78,80,82,84A,84B) for generating an RMC having desirable properties for manufacturing a part free from defects, wherein the plurality of finishing operations include a first harperizing process performed for a first amount of time and a second harperizing process performed for a second, different amount of time.
A pneumatic tire comprising a tread portion provided with a pair of shoulder main grooves extending continuously in the tire circumferential direction, wherein one shoulder main groove is disposed on each side of the tire equator,and a center main groove extending continuously in the tire circumferential direction and disposed on the tire equator so that the tread portion has a shoulder land portion axially outside each of the shoulder main grooves, and a middle land portion between each of the shoulder main grooves and the center main groove, wherein each of the middle land portions is provided with middle lateral grooves each extending axially inwardly from the adjacent shoulder main groove, while decreasing the angle with respect to the tire circumferential direction, characterized in that the middle lateral grooves include first middle lateral grooves extending to the center main groove and second middle lateral grooves terminating in the respective middle land portions, and each of the middle lateral grooves (10, 11, 12) is provided with a groove bottom sipe extending along the middle lateral groove (10, 11, 12) and opened in the groove bottom of the middle lateral groove (10, 11, 12). a pair of shoulder main grooves extending continuously in the tire circumferential direction, wherein one shoulder main groove is disposed on each side of the tire equator,and a center main groove extending continuously in the tire circumferential direction and disposed on the tire equator so that the tread portion has a shoulder land portion axially outside each of the shoulder main grooves, and a middle land portion between each of the shoulder main grooves and the center main groove, wherein each of the middle land portions is provided with middle lateral grooves each extending axially inwardly from the adjacent shoulder main groove, while decreasing the angle with respect to the tire circumferential direction, characterized in that the middle lateral grooves include first middle lateral grooves extending to the center main groove and second middle lateral grooves terminating in the respective middle land portions, and each of the middle lateral grooves (10, 11, 12) is provided with a groove bottom sipe extending along the middle lateral groove (10, 11, 12) and opened in the groove bottom of the middle lateral groove (10, 11, 12).
A method for a vehicle system comprising an internal combustion engine having a plurality of cylinders, an exhaust gas manifold forming the outlet of the cylinders from which an exhaust gas line extends, the internal combustion engine having a turbocharger unit connected thereto, a turbocompound unit arranged to receive exhaust gas flowing from the turbocharger unit, and an exhaust gas recirculation system comprising a gas recirculation line connecting with the exhaust gas line at a position between the cylinders of the internal combustion engine and the turbocharger unit, the gas recirculation line connecting with an air intake line at a position between a charge air cooler and the cylinders of the internal combustion engine, characterized in that the method comprises controlling the exhaust gas flowing through the exhaust gas recirculation system by determining the pressure difference between the exhaust gas manifold and the air intake line downstream the charge air cooler, and, if the determined pressure difference is above a predetermined threshold value directing the recirculated exhaust gas to the air intake line downstream the charge air cooler, and, if the determined pressure difference is not above the predetermined threshold value directing the recirculated exhaust gas to a compressor of the turbocharger unit.