mhurhangee/ep-ind-claims huggingface dataset:
Self-propelled construction machine comprising a machine frame, which is carried by a chassis, which has front and rear running gears (11A,B; 12A,B), a working device arranged on the machine frame for removing ground material, a transport device extending forward or rearward in the working direction beyond the machine frame to convey removed material, and an image display device for displaying an image of the surroundings of the construction machine, wherein the image display device is configured as an image display device for displaying an image of the surroundings of the construction machine, which image display device has a camera system with a plurality of cameras (18A, 18B, 18C, 18D) for recording individual overlapping image regions (20A, 20B, 20C, 20D) of the surroundings of the construction machine, wherein the camera system comprises at least one camera (18D; 18D', 18D") arranged on the transport device, and at least one camera (18A, 18B, 18C) arranged on the machine frame, which is arranged on the machine frame in such a way that the viewing direction of the camera is substantially directed away from the machine frame, characterized in that the image display device is configured as an image display device for displaying a bird's eye view image of the surroundings of the construction machine, wherein an image processing system is provided, which is configured in such a way that image details of the individual image regions (20A, 20B, 20C, 20D) are joined together to form a total image from a bird's eye view, and the at least one camera (18D; 18D', 18D") of the camera system arranged on the transport device is arranged on transport device in such a way that the viewing direction of the camera is directed substantially in the direction of the machine frame
A cyclonic system for performing subtractive machining in microgravity systems, the cyclonic system comprising: an enclosure having a top plate, a base plate, and a tapered side wall joining the top plate to the base plate, wherein the enclosure defines a chamber to house a milling machine having a cutter tool; a blower to generate an airstream to be used to induce a cyclonic airflow to achieve cyclonic separation within the enclosure, wherein the cyclonic airflow is configured to urge debris from the milling machine toward the base plate; and a debris collection module to collect the debris from the milling machine. an enclosure having a top plate, a base plate, and a tapered side wall joining the top plate to the base plate, wherein the enclosure defines a chamber to house a milling machine having a cutter tool; a blower to generate an airstream to be used to induce a cyclonic airflow to achieve cyclonic separation within the enclosure, wherein the cyclonic airflow is configured to urge debris from the milling machine toward the base plate; and a debris collection module to collect the debris from the milling machine.
A communication line model device comprising: a first circuit that simulates a first section of a wire of at least one communication line of a plurality of communication lines (40-44; 70-73) in a wireline network using a first parameter; a second circuit that simulates a second section of the wire of the at least one communication line using a second parameter that is different from the first parameter; and wherein the communication line model device is configured to generate a crosstalk model of crosstalk on the at least one communication line using the first and second circuits. a first circuit that simulates a first section of a wire of at least one communication line of a plurality of communication lines (40-44; 70-73) in a wireline network using a first parameter; a second circuit that simulates a second section of the wire of the at least one communication line using a second parameter that is different from the first parameter; and wherein the communication line model device is configured to generate a crosstalk model of crosstalk on the at least one communication line using the first and second circuits.
A method for managing stoppage of a pressurized-water nuclear reactor, integrated into a submerged module for producing electrical power, if a primary and/or secondary leak is detected in a steam generator provided with a safety valve, said generator being connected to the reactor and associated with a standby cooling means, characterized in that it includes the following steps: - 1) detecting a primary/secondary leak of the steam generator, - 2) automatically stopping the reactor and isolating the damaged steam generators, - 3) bringing the corresponding standby cooling means online, - 4) monitoring the primary pressure, - 5) once the primary pressure has passed below the set pressure of the safety valves of the steam generator, isolating the standby cooling means of the broken steam generator, and - 6) continuing to passively cool the reactor with the remaining steam generators and cooling means. - 1) detecting a primary/secondary leak of the steam generator, - 2) automatically stopping the reactor and isolating the damaged steam generators, - 3) bringing the corresponding standby cooling means online, - 4) monitoring the primary pressure, - 5) once the primary pressure has passed below the set pressure of the safety valves of the steam generator, isolating the standby cooling means of the broken steam generator, and - 6) continuing to passively cool the reactor with the remaining steam generators and cooling means.
A space vehicle, comprising: one or more heat-producing components; and a closed loop cooling system configured to remove heat generated by the one or more heat-producing components, the closed loop cooling system comprising a coolant passageway defining a closed loop, a coolant located within the coolant passageway, one or more pumps configured to move the coolant through the coolant passageway, a first heat exchange component disposed along the coolant passageway, the first heat exchange component configured to transfer heat from the heat-producing components to the coolant, and a second heat exchange component disposed along the coolant passageway, the second heat exchange component configured to remove heat from the coolant; wherein the coolant passageway comprises a platform portion and a payload portion coupled together by quick disconnect fittings. one or more heat-producing components; and a closed loop cooling system configured to remove heat generated by the one or more heat-producing components, the closed loop cooling system comprising a coolant passageway defining a closed loop, a coolant located within the coolant passageway, one or more pumps configured to move the coolant through the coolant passageway, a first heat exchange component disposed along the coolant passageway, the first heat exchange component configured to transfer heat from the heat-producing components to the coolant, and a second heat exchange component disposed along the coolant passageway, the second heat exchange component configured to remove heat from the coolant; wherein the coolant passageway comprises a platform portion and a payload portion coupled together by quick disconnect fittings.
A method for controlling uplink power allocation in a user equipment operating in a communication network, the method comprising: selecting between at least a first uplink power allocation technique and a second power allocation technique for use in the user equipment; and using the selected power allocation technique in the user equipment to transmit uplink data by allocating transmit power between at least two carriers on which the uplink data is transmitted, wherein the first uplink power allocation technique is a parallel split power allocation which is determined based on dedicated physical control channel quality and a serving grant for each carrier, and wherein the second uplink power allocation technique is a power sensitive power allocation scheme in which power is allocated sequentially from best to worst carrier up to a serving grant for each carrier. selecting between at least a first uplink power allocation technique and a second power allocation technique for use in the user equipment; and using the selected power allocation technique in the user equipment to transmit uplink data by allocating transmit power between at least two carriers on which the uplink data is transmitted, wherein the first uplink power allocation technique is a parallel split power allocation which is determined based on dedicated physical control channel quality and a serving grant for each carrier, and wherein the second uplink power allocation technique is a power sensitive power allocation scheme in which power is allocated sequentially from best to worst carrier up to a serving grant for each carrier.
Blade row segment (1, 1') of a blade row of a turbomachine, the blade row segment comprising at least two airfoils (20, 30), each having a leading and a trailing edge (23, 33, 24, 34), and a platform, which has a platform surface and a leading-side platform edge, an axial rowwidth (g) being determined by the distance between the leading edges (23, 33) of the airfoils (20, 30) and their trailing edges (24, 34), measured in the direction of the intended axial main flow, the platform surface having an elevation (11, 11') extending as far as the pressure side of a first of the airfoils and a recess (13, 13') extending as far as the suction side of the other of the airfoils, at least one highest point (12, 12') of the elevation (11, 11') and at least one lowest point (14, 14') of the recess (13, 13') each lying at least 30% and at most 60% of the axial row width (g) downstream of the leading edges (23, 33) of the airfoils (20, 30) and the elevation (11, 11') and the recess (13, 13') each extending as far as the leading -side platform edge, the blade row segment (1, 1') being characterized in that the at least one highest point of the elevation is arranged downstream of the at least one lowest point of the recess.
A plant growing system comprising: a roller assembly for rolling engagement with an upper track; a support member coupled to the roller assembly, the support member having a first side in which an indentation is formed, and a second side opposite the first side; a first growing panel suspended from the first side of the support member; a second growing panel suspended from the second side of the support member; and a supply tube supported by the support member; wherein each of the first growing panel and the second growing panel comprises: a growing wall having a plurality of openings for receiving a plurality of plant receptacles:; and a sidewall extending about at least a portion of a periphery of the growing wall; wherein the sidewall of the first growing panel; and the sidewall of the second growing panel abut each other to define an enclosure between the growing wall of the first growing panel; and the growing wall of the second growing panel; and wherein the supply tube comprises: a connection tube extending along an upper face of the support member, and a vertical tube, coupled to the connection tube, the vertical tube extending through the indentation formed in the first side of the support member into the enclosure. a roller assembly for rolling engagement with an upper track; a support member coupled to the roller assembly, the support member having a first side in which an indentation is formed, and a second side opposite the first side; a first growing panel suspended from the first side of the support member; a second growing panel suspended from the second side of the support member; and a supply tube supported by the support member; wherein each of the first growing panel and the second growing panel comprises: a growing wall having a plurality of openings for receiving a plurality of plant receptacles:; and a sidewall extending about at least a portion of a periphery of the growing wall; a growing wall having a plurality of openings for receiving a plurality of plant receptacles:; and a sidewall extending about at least a portion of a periphery of the growing wall; wherein the sidewall of the first growing panel; and the sidewall of the second growing panel abut each other to define an enclosure between the growing wall of the first growing panel; and the growing wall of the second growing panel; and wherein the supply tube comprises: a connection tube extending along an upper face of the support member, and a vertical tube, coupled to the connection tube, the vertical tube extending through the indentation formed in the first side of the support member into the enclosure. a connection tube extending along an upper face of the support member, and a vertical tube, coupled to the connection tube, the vertical tube extending through the indentation formed in the first side of the support member into the enclosure.
A computer implemented method of executing a shader program for a combined shader stage of a graphics processing pipeline, the method comprising: retrieving a combined shader program for the combined shader stage (410/420), the combined shader program comprising a single shader program that includes instructions from both a vertex shader program and either a hull shader program or a geometry shader program; determining a number of wavefronts to execute the combined shader program as the greater of a number of wavefronts to execute instructions from the vertex shader program and instructions from the hull shader program or geometry shader program; reserving resources for the number of wavefronts to execute the combined shader program, the resources being of a type of at least one of vector registers, scalar registers, memory of a local data store, and memory of a non-local memory, each wavefront including of plurality of work-items that execute simultaneously on a single instruction multiple data execution unit; and launching the plurality of wavefronts to execute the combined shader program; and wherein the combined shader stage (410/420) includes one of a combined vertex shader stage and hull shader stage and a combined vertex shader stage and geometry shader stage, whereby said combined shader stage is not used when both tessellation and geometry shader stages are disabled. retrieving a combined shader program for the combined shader stage (410/420), the combined shader program comprising a single shader program that includes instructions from both a vertex shader program and either a hull shader program or a geometry shader program; determining a number of wavefronts to execute the combined shader program as the greater of a number of wavefronts to execute instructions from the vertex shader program and instructions from the hull shader program or geometry shader program; reserving resources for the number of wavefronts to execute the combined shader program, the resources being of a type of at least one of vector registers, scalar registers, memory of a local data store, and memory of a non-local memory, each wavefront including of plurality of work-items that execute simultaneously on a single instruction multiple data execution unit; and launching the plurality of wavefronts to execute the combined shader program; and wherein the combined shader stage (410/420) includes one of a combined vertex shader stage and hull shader stage and a combined vertex shader stage and geometry shader stage, whereby said combined shader stage is not used when both tessellation and geometry shader stages are disabled.
A method for outputting control instructions to at least one first wind power installation or at least one first wind farm using an evaluation device, wherein data are received by the evaluation device from at least one further wind power installation of at least one further wind farm or from at least one further wind farm and are evaluated using the evaluation device, wherein at least one control instruction for the first wind power installation or the first wind farm is output on the basis of the received data from the further wind power installation or the further wind farm, wherein the first wind power installation or the first wind farm and the further wind power installation or the further wind farm are connected to a control room via at least one data line (34, 36), and the evaluation device is part of the control room and wherein a plurality of wind farms (112a, 112b) are connected to the control room and characterized in, that the first wind farm and the second wind farm each have a plurality of wind power installations which provide their power in an electrical farm network, so that the powers of the wind power installations of the respective wind farm (112a, 112b) in the respective electrical farm network are added up and a transformer is provided in each case in order to step up the voltage in the respective wind farm grid and in order to feed the power into the supply network at the feed-in point. the first wind power installation or the first wind farm and the further wind power installation or the further wind farm are connected to a control room via at least one data line (34, 36), and the evaluation device is part of the control room and wherein a plurality of wind farms (112a, 112b) are connected to the control room and characterized in, that the first wind farm and the second wind farm each have a plurality of wind power installations which provide their power in an electrical farm network, so that the powers of the wind power installations of the respective wind farm (112a, 112b) in the respective electrical farm network are added up and a transformer is provided in each case in order to step up the voltage in the respective wind farm grid and in order to feed the power into the supply network at the feed-in point.
A method for controlling an organic light emitting display device, the organic light display device including a plurality of pixels for generating images, each of the plurality of pixels is connected to a gate line, a data line, and a reference line,each of the plurality of pixels including at least: - a first switching thin film transistor connected between the data line and the gate of a driving TFT, and driven by the signal applied to the gate line, - a second switching thin film transistor connected between the reference line and the source of the driving TFT, and - an organic light emitting diode (OLED) connected to the source of the driving TFT, the method comprising: - applying a predetermined voltage between gate and source of the driving thin film transistor, through the first and second switching thin film transistors (Trl and Tr2), then - sensing the characteristics of the driving thin film transistor by means of sensing a variation in the source voltage of the driving thin film transistor over a predetermined time duration through the second switching thin film transistor and the reference line, for an external compensation, to get a compensation voltage, the method being further characterized by: - during the sensing of the variation in the source voltage of the driving thin film transistor, varying the voltage applied to the drain of the driving thin film transistor, so as to maintain the drain-source voltage of the driving thin film transistor constant, and then - adding the compensation voltage to the data voltage (Vdata) in accordance with the video signal, and supplying the data voltage to the data line of each pixel. - a first switching thin film transistor connected between the data line and the gate of a driving TFT, and driven by the signal applied to the gate line, - a second switching thin film transistor connected between the reference line and the source of the driving TFT, and - an organic light emitting diode (OLED) connected to the source of the driving TFT, - applying a predetermined voltage between gate and source of the driving thin film transistor, through the first and second switching thin film transistors (Trl and Tr2), then - sensing the characteristics of the driving thin film transistor by means of sensing a variation in the source voltage of the driving thin film transistor over a predetermined time duration through the second switching thin film transistor and the reference line, for an external compensation, to get a compensation voltage, - during the sensing of the variation in the source voltage of the driving thin film transistor, varying the voltage applied to the drain of the driving thin film transistor, so as to maintain the drain-source voltage of the driving thin film transistor constant, and then - adding the compensation voltage to the data voltage (Vdata) in accordance with the video signal, and supplying the data voltage to the data line of each pixel.
A blender comprising: a main body provided with a motor assembly; a container detachably mounted on the main body and having an opened upper surface to form a food receiving space therein; a blade device mounted in the container and connected to the motor assembly when the container is seated on the main body; a main lid inserted into the opened upper surface of the container to be in contact with an inner surface of the container, the main lid comprises a through-hole which is penetrated in an vertical direction; and an auxiliary lid inserted into the through-hole and configured to open and close the through-hole, air vent formed between the auxiliary lid and an inner surface of the through-hole to discharge the air from inside the container to the outside, and wherein an inlet and an outlet of the air vent are disposed on different vertical extension lines based on the bottom surface of the container; characterized in that an airtight portion is formed along a circumferential surface of the auxiliary lid, the airtight portion is in contact with the inner surface of the through-hole when the auxiliary lid is inserted into the through-hole, wherein the air vent is formed on the airtight portion. a main body provided with a motor assembly; a container detachably mounted on the main body and having an opened upper surface to form a food receiving space therein; a blade device mounted in the container and connected to the motor assembly when the container is seated on the main body; a main lid inserted into the opened upper surface of the container to be in contact with an inner surface of the container, the main lid comprises a through-hole which is penetrated in an vertical direction; and an auxiliary lid inserted into the through-hole and configured to open and close the through-hole, air vent formed between the auxiliary lid and an inner surface of the through-hole to discharge the air from inside the container to the outside, and wherein an inlet and an outlet of the air vent are disposed on different vertical extension lines based on the bottom surface of the container; characterized in that an airtight portion is formed along a circumferential surface of the auxiliary lid, the airtight portion is in contact with the inner surface of the through-hole when the auxiliary lid is inserted into the through-hole, wherein the air vent is formed on the airtight portion.