mhurhangee/ep-ind-claims huggingface dataset:
A compressor comprising: a case having a plurality of cylinders; a crankshaft 38); and for each of said plurality of cylinders; a piston mounted for reciprocal movement at least partially within the cylinder; a connecting rod coupling the piston to the crankshaft; and a pin coupling the connecting rod to the piston, the pin having: a first end portion and a second end portion mounted in a first receiving portion and a second receiving portion of the piston; and a central portion engaging the connecting rod, characterised in that each piston for each of said plurality of cylinders comprises a first cast iron; at each cylinder of the plurality cylinders, the case comprises a second cast iron; and one of said first cast iron and said second cast iron is a Meehanite-type cast iron having an ultimate tensile strength of 250-375 N/mm 2 and the other of said first cast iron and said second cast iron is a gray cast iron having an ultimate tensile strength of 200-250 N/mm 2 a case having a plurality of cylinders; a crankshaft 38); and for each of said plurality of cylinders; a piston mounted for reciprocal movement at least partially within the cylinder; a connecting rod coupling the piston to the crankshaft; and a pin coupling the connecting rod to the piston, the pin having: a first end portion and a second end portion mounted in a first receiving portion and a second receiving portion of the piston; and a central portion engaging the connecting rod, a piston mounted for reciprocal movement at least partially within the cylinder; a connecting rod coupling the piston to the crankshaft; and a pin coupling the connecting rod to the piston, the pin having: a first end portion and a second end portion mounted in a first receiving portion and a second receiving portion of the piston; and a central portion engaging the connecting rod, each piston for each of said plurality of cylinders comprises a first cast iron; at each cylinder of the plurality cylinders, the case comprises a second cast iron; and one of said first cast iron and said second cast iron is a Meehanite-type cast iron having an ultimate tensile strength of 250-375 N/mm 2 and the other of said first cast iron and said second cast iron is a gray cast iron having an ultimate tensile strength of 200-250 N/mm 2
A kitchen apparatus comprising: a food preparation chamber; a first housing portion; a second housing portion, the first housing portion and the second housing portion being movable relative to each other to enable the food preparation chamber to be opened and closed; and a channel for receiving at least one wire connected to a food monitoring sensor, at least part of the channel being at an interface between the first housing portion and the second housing portion so as to permit routing of the at least one wire received in the channel into the food preparation chamber; the apparatus being characterized by a handle mounted to one of the first and second housing portions (102, 104) via a mounting portion extending between the respective housing portion and the handle, wherein at least part of the channel is arranged in the mounting portion. a food preparation chamber; a first housing portion; a second housing portion, the first housing portion and the second housing portion being movable relative to each other to enable the food preparation chamber to be opened and closed; and a channel for receiving at least one wire connected to a food monitoring sensor, at least part of the channel being at an interface between the first housing portion and the second housing portion so as to permit routing of the at least one wire received in the channel into the food preparation chamber; the apparatus being characterized by a handle mounted to one of the first and second housing portions (102, 104) via a mounting portion extending between the respective housing portion and the handle, wherein at least part of the channel is arranged in the mounting portion.
A method for adjusting the amplitude and frequency of the microfolding during the photochemical matting of radiation-curable coatings based on acrylate/methacrylate formulas in which the coating is irradiated with short-wave, monochromatic radiation from a low-pressure mercury lamp with emission lines at 185 and 254 nm and doses of 15 to 600 mJ/cm2 or of coatings based on photoinitiator-free acrylate/methacrylate formulas with monochromatic radiation at a wavelength of 185 nm with doses of 100 to 1500 mJ/cm2, after which the coating is microstructured using an excimer emitter with emission lines in the range from 172 to 222 nm through irradiation with doses of 0.5 to 10 mJ/cm2, after which the microstructured coating is cured by means of UV or electron beam curing.
A semiconductor FET, comprising a resonant gate and source and drain electrodes, wherein the resonant gate includes integrally constructed passive components (31, 33, 35) connected in series or parallel with gate segments which cause the gate to be electromagnetically resonant at one or more predetermined frequencies.
A radiation detector configured to sense radiation, the detector comprising a plurality of image pixels (410, 430) that each include a plurality of counting pixels, wherein, each of said plurality of counting pixels comprises: a radiation absorption layer for converting incident photons into an electrical signal; and a photon processor (413, 417) for counting a number of the photons, based on the electrical signal transferred from the radiation absorption layer, and wherein each of the plurality of image pixels is a pixel for calculating one pixel value included in the image, based on number of photons counted by the plurality of counting pixels, CHARACTERISED IN THAT the photon processor is configured to store, in a counting memory, the number of the counted photons, and to separately perform photon counting operation and photon number storing operation for each counting pixel of the plurality of counting pixels. a radiation absorption layer for converting incident photons into an electrical signal; and a photon processor (413, 417) for counting a number of the photons, based on the electrical signal transferred from the radiation absorption layer, and wherein each of the plurality of image pixels is a pixel for calculating one pixel value included in the image, based on number of photons counted by the plurality of counting pixels, CHARACTERISED IN THAT the photon processor is configured to store, in a counting memory, the number of the counted photons, and to separately perform photon counting operation and photon number storing operation for each counting pixel of the plurality of counting pixels.
Penile constriction device comprising a body including an aperture for surrounding a penis wherein the aperture defines an inner edge (6,7), characterized in that an elastic strap is arranged within the aperture or at least in alignment with the aperture wherein the ends of the strap are connected to connection points at the inner edge (6,7) of the aperture or at portions of the body adjacent to the aperture, and wherein the connection points are positioned opposite to each other relative to the aperture and the length of the strap between its both ends is greater than the distance between the connection points so that the strap is able to be optionally brought into a first position so as to limit the aperture for defining a first aperture cross-section area (4.1) or a second position opposite to the first position relative to the aperture so as to limit the aperture for defining a second aperture cross-section (4.2) area which is larger than the first aperture cross-section area (4.1).
A portable container, of the type of a suitcase, a trunk, a crate, a trolley, and the like, comprising a first shell portion and a second shell portion which are mutually articulated and can move between a configuration for closing an internal compartment and at least one open configuration for free access to the compartment, a safety device being coupled to said shell portions (2a, 2b) and contrasting accidental movement toward said closed configuration in order to maintain said open configuration, characterized in that it comprises an assembly for coupling said device to at least said first shell portion, said assembly being provided with: - at least two inserts which are stably inserted in respective seats having a corresponding shape which are provided along a wall of said first shell portion, - a slider coupled to said device, - a profiled element which is rigidly supported by said inserts and forms a guiding track for said slider, which is normally movable along said track, - means for the rigid anchoring of said slider to said profiled element, which can be activated at any position of said slider along said track. - at least two inserts which are stably inserted in respective seats having a corresponding shape which are provided along a wall of said first shell portion, - a slider coupled to said device, - a profiled element which is rigidly supported by said inserts and forms a guiding track for said slider, which is normally movable along said track, - means for the rigid anchoring of said slider to said profiled element, which can be activated at any position of said slider along said track.
A method for operating a converter system of a wind turbine in order to exchange electrical power with an electrical supply grid at a grid connection point, comprising the steps of: - operating the converter system in a normal operating mode; - capturing an overload situation affecting the converter system; - changing the converter system into an overload operating mode if an overload situation has been captured, and then - operating the converter system in the overload operating mode, wherein an average switching frequency (f sw) for generating an output current is reduced in the overload operating mode of the converter system in comparison with the normal operating mode, characterized in that a higher load on the converter system, namely an increased temperature, is allowed in the overload operating mode of the converter system for a predetermined maximum overload period, and the average switching frequency (f sw) is reduced for the predetermined maximum overload period, wherein the maximum overload period is determined on the basis of a thermal preload of the converter system or on the basis of a thermal preload of components of the converter system. - operating the converter system in a normal operating mode; - capturing an overload situation affecting the converter system; - changing the converter system into an overload operating mode if an overload situation has been captured, and then - operating the converter system in the overload operating mode,
A method for processing data on a connection between a first node and a second node, - wherein the first node conveys first data of a first size to the second node; - wherein the second node conveys second data of a second size to the first node; - wherein the first node determines a first time (RTT 1) based on a duration from the first data being sent until the second data is received; - wherein the first node conveys third data of the second size to the second node; - wherein the second node conveys fourth data of the first size to the first node; - wherein the first node determines a second time (RTT 2) based on a duration from the third data being sent until the fourth data is received; - wherein the first size and the second size of data are different. - wherein the first node conveys first data of a first size to the second node; - wherein the second node conveys second data of a second size to the first node; - wherein the first node determines a first time (RTT 1) based on a duration from the first data being sent until the second data is received; - wherein the first node conveys third data of the second size to the second node; - wherein the second node conveys fourth data of the first size to the first node; - wherein the first node determines a second time (RTT 2) based on a duration from the third data being sent until the fourth data is received; - wherein the first size and the second size of data are different.
A system for receiving, securing, and/or providing a package, having a securing device and at least one securing container, wherein the securing container is removable from the securing device, wherein the securing container has a securing element, non-detachably connected to the securing container for securing the securing container with the securing device, wherein the securing device is formed for permanent, immovable, and/or non-detachable fastening, anchoring, and/or fixing to, or for connection to, a building, a wall, a floor, a foundation, or another part of an immovable property, wherein the securing device has at least one securing mechanism, which is formed to secure the securing container by gripping, engaging around, or engaging behind the securing element against removal from the securing device, wherein the securing container is securable, using the securing element, against opening of the securing container and/or removal of the package, and wherein the securing container has a closure device that is lockable to the securing device by the securing element.
System for controlling a room fragrancing device with at least one fragrances diffuser unit which is designed to diffuse different fragrances into a room, wherein a smart home device is provided and the fragrance diffuser unit is designed for wireless communication with the smart home device, wherein a handheld terminal device is envisaged which is configured for wireless communication with the smart home device and with which the fragrance diffuser unit can be controlled via the smart home device, characterised in that by means of the terminal device an ambience can be selected and specified to the smart home device, wherein by means of the smart home device a fragrance corresponding to the ambience is produced from different fragrances by way of stored recipes and diffused into the room as a fragrance via the fragrance diffuser unit, wherein fragrancing takes place automatically and at an intensity which is only subconsciously perceived by a person and results in the desired ambience.
A method of controlling an engine viscosity of fuel in a fuel control system using a density of the fuel measured with a Coriolis flow meter, the method comprised of: measuring a temperature of the fuel using a temperature control unit coupled to a fuel line coupling an engine to a fuel source; providing the fuel to the Coriolis flow meter coupled to the fuel line between the temperature control unit and the engine; measuring the density of the fuel with the Coriolis flow meter; generating a signal with the Coriolis flow meter based on the density of the fuel; characterized by: providing the signal based on the measured density of the fuel to the temperature control unit; determining a viscosity of the fuel based on the density of the fuel and an empirically determined viscosity-density relationship of the fluid; and controlling the engine viscosity of the fuel, using the temperature control unit, by controlling the temperature of the fuel based on the determined viscosity and the temperature. measuring a temperature of the fuel using a temperature control unit coupled to a fuel line coupling an engine to a fuel source; providing the fuel to the Coriolis flow meter coupled to the fuel line between the temperature control unit and the engine; measuring the density of the fuel with the Coriolis flow meter; generating a signal with the Coriolis flow meter based on the density of the fuel; characterized by: providing the signal based on the measured density of the fuel to the temperature control unit; determining a viscosity of the fuel based on the density of the fuel and an empirically determined viscosity-density relationship of the fluid; and controlling the engine viscosity of the fuel, using the temperature control unit, by controlling the temperature of the fuel based on the determined viscosity and the temperature. providing the signal based on the measured density of the fuel to the temperature control unit; determining a viscosity of the fuel based on the density of the fuel and an empirically determined viscosity-density relationship of the fluid; and controlling the engine viscosity of the fuel, using the temperature control unit, by controlling the temperature of the fuel based on the determined viscosity and the temperature.
Strand-guiding segment for supporting and guiding a metallic strand in a strand guide of a continuous casting machine, - having an upper frame and a lower frame, wherein the upper frame is connected to the lower frame; - wherein a plurality of strand-guiding rollers (5, 6, 7) following one another in the casting direction are connected both to the upper frame and to the lower frame; - wherein the upper frame and/or the lower frame comprise/comprises at least two side boxes (10a, 10b) situated on the outside in the width direction of the strand-guiding segment; - wherein a roller support takes the form of a plate; - wherein the strand-guiding segment has a plurality of left side boxes following one another in the casting direction and a plurality of right side boxes following one another in the casting direction; - wherein at least two individually displaceable strand-guiding rollers arranged directly following one another in the casting direction are able to be placed individually against the strand; - wherein each individually displaceable strand-guiding roller is assigned a roller support and at least two adjusting devices for displacing the roller support transversely with respect to the casting direction, and the individually displaceable strand-guiding roller is rotatably supported on the roller support; - wherein a first end of each adjusting device engages on a side box on one side, and a second end of the same adjusting device engages on the roller support; characterized in that a side box (10a, 10b) has at least two parallel first guide surfaces for each roller support transversely with respect to the casting direction, and the roller support has at least two first counterpart guide surfaces corresponding to the first guide surfaces of the side box (10a, 10b). - having an upper frame and a lower frame, wherein the upper frame is connected to the lower frame; - wherein a plurality of strand-guiding rollers (5, 6, 7) following one another in the casting direction are connected both to the upper frame and to the lower frame; - wherein the upper frame and/or the lower frame comprise/comprises at least two side boxes (10a, 10b) situated on the outside in the width direction of the strand-guiding segment; - wherein a roller support takes the form of a plate; - wherein the strand-guiding segment has a plurality of left side boxes following one another in the casting direction and a plurality of right side boxes following one another in the casting direction; - wherein at least two individually displaceable strand-guiding rollers arranged directly following one another in the casting direction are able to be placed individually against the strand; - wherein each individually displaceable strand-guiding roller is assigned a roller support and at least two adjusting devices for displacing the roller support transversely with respect to the casting direction, and the individually displaceable strand-guiding roller is rotatably supported on the roller support; - wherein a first end of each adjusting device engages on a side box on one side, and a second end of the same adjusting device engages on the roller support;
A method (600, 700), comprising: applying (640, 740), at an encoder (224, 324, 400), a first data bus inversion algorithm to at least one of a plurality of subsets of original data bits to be transmitted on channels (230, 330) and applying (660, 760), at an encoder (224, 324, 400), a second data bus inversion algorithm to at least one other of the plurality of subsets of original data bits, to form encoded subsets; and transmitting the encoded subsets on the channels. applying (640, 740), at an encoder (224, 324, 400), a first data bus inversion algorithm to at least one of a plurality of subsets of original data bits to be transmitted on channels (230, 330) and applying (660, 760), at an encoder (224, 324, 400), a second data bus inversion algorithm to at least one other of the plurality of subsets of original data bits, to form encoded subsets; and transmitting the encoded subsets on the channels.
Switch assembly, particularly preselector, for a regulating transformer, which comprises a first winding and a second winding with a first tap (3.3) and second tap (3.4), comprising: - a first connection terminal (2.1) connectible with the first winding; - a second connection terminal (3.1) connectible with the first tap (3.3); - a third connection terminal (3.2) connectible with the second tap (3.4); - a first, second, third and fourth fixed contact (5.1, 5.2, 5.3, 5.4); - a vacuum interrupter; - a first movable contact selectably contactable with the first or second fixed contact (5.1, 5.2); and - a second movable contact selectably contactable with the third or fourth fixed contact (5.3, 5.4); wherein - the second and fourth fixed contacts (5.2, 5.4) are connected with the second connection terminal (3.1); - the first and third fixed contacts (5.1, 5.3) are connected with the third connection terminal (3.2); - the first movable contact is connected with the first connection terminal (2.1) by way of the vacuum interrupter; and - the second movable contact is connected with the first connection terminal (2.1); - the vacuum interrupter is mounted to be stationary or fixed in location relative to the first and the second movable contact (7, 8). - a first connection terminal (2.1) connectible with the first winding; - a second connection terminal (3.1) connectible with the first tap (3.3); - a third connection terminal (3.2) connectible with the second tap (3.4); - a first, second, third and fourth fixed contact (5.1, 5.2, 5.3, 5.4); - a vacuum interrupter; - a first movable contact selectably contactable with the first or second fixed contact (5.1, 5.2); and - a second movable contact selectably contactable with the third or fourth fixed contact (5.3, 5.4); - the second and fourth fixed contacts (5.2, 5.4) are connected with the second connection terminal (3.1); - the first and third fixed contacts (5.1, 5.3) are connected with the third connection terminal (3.2); - the first movable contact is connected with the first connection terminal (2.1) by way of the vacuum interrupter; and - the second movable contact is connected with the first connection terminal (2.1); - the vacuum interrupter is mounted to be stationary or fixed in location relative to the first and the second movable contact (7, 8).