mhurhangee/ep-ind-claims huggingface dataset:
An electric motor comprising: a stator; an armature shaft rotatable with respect to the stator, a lamination stack mounted on the armature shaft and having a plurality of radially extending teeth forming a plurality of slots therebetween circumferentially around a periphery of the lamination stack; an armature end insulator arranged at an end of the lamination stack, the end insulator having a base portion fitted around the armature shaft and plurality of insulating teeth corresponding to the radially extending teeth of the lamination stack forming a plurality of slots therebetween; a plurality of coils wound in the lamination stack slots and the end insulator slots; and a fan having a plurality of blades attached to a fan ring (520, 522) and mounted to an end of the lamination stack, characterized in that the fan ring includes a plurality of longitudinally-extending tongues arranged to be mounted at the end of the lamination stack and the end insulator includes a plurality of longitudinally-extending notches corresponding to the tongues of the fan ring to allow the tongues to be in direct contact with the end of the lamination stack. a stator; an armature shaft rotatable with respect to the stator, a lamination stack mounted on the armature shaft and having a plurality of radially extending teeth forming a plurality of slots therebetween circumferentially around a periphery of the lamination stack; an armature end insulator arranged at an end of the lamination stack, the end insulator having a base portion fitted around the armature shaft and plurality of insulating teeth corresponding to the radially extending teeth of the lamination stack forming a plurality of slots therebetween; a plurality of coils wound in the lamination stack slots and the end insulator slots; and a fan having a plurality of blades attached to a fan ring (520, 522) and mounted to an end of the lamination stack, characterized in that the fan ring includes a plurality of longitudinally-extending tongues arranged to be mounted at the end of the lamination stack and the end insulator includes a plurality of longitudinally-extending notches corresponding to the tongues of the fan ring to allow the tongues to be in direct contact with the end of the lamination stack.
A return pan for an agricultural combine for harvesting crops in an agricultural field and having a direction of travel through the field, wherein the return pan comprises: a textured floor configured to push grain toward an exit of the return pan when the return pan is oscillated in a fore-and-aft direction, a first auger and a second auger that extend across the exit of the textured floor generally perpendicular to the fore-and-aft direction, and a first motor coupled to the first auger to drive the first auger in rotation; characterized in that the return pan comprises a second motor coupled to the second auger to drive the second auger in rotation. a textured floor configured to push grain toward an exit of the return pan when the return pan is oscillated in a fore-and-aft direction, a first auger and a second auger that extend across the exit of the textured floor generally perpendicular to the fore-and-aft direction, and a first motor coupled to the first auger to drive the first auger in rotation; characterized in that the return pan comprises a second motor coupled to the second auger to drive the second auger in rotation.
A microbubble generator, comprising: an air dissolving tank, defining an air dissolving cavity therein, and having an inlet in an upper portion of the air dissolving tank and an outlet in a lower portion of the air dissolving tank, the inlet and outlet configured to allow water to flow in and out, the inlet being located above the outlet and being staggered in a horizontal direction of the air dissolving tank; a cavitator, provided outside the air dissolving tank and connected with the outlet, or provided at the outlet; and a baffle, provided in the air dissolving tank, at least partially located between the inlet and the outlet in the horizontal direction and vertically connected with a bottom wall of the air dissolving tank, the baffle further provided with a gap and/or a through hole to enable water with microbubbles to flow through the gap and/or through hole, and further configured to prevent water with large bubbles flowing through the gap and/or through hole. an air dissolving tank, defining an air dissolving cavity therein, and having an inlet in an upper portion of the air dissolving tank and an outlet in a lower portion of the air dissolving tank, the inlet and outlet configured to allow water to flow in and out, the inlet being located above the outlet and being staggered in a horizontal direction of the air dissolving tank; a cavitator, provided outside the air dissolving tank and connected with the outlet, or provided at the outlet; and
An arrangement for recovering wave energy, comprising: a flotation piece arrangeable to float in water, a first and a second transmission wheel (2a, 2b) arranged in the flotation piece rotatably and spaced apart from one another, a pull-transmitting flexible machine part arranged into power-transmitting contact with the first and the second transmission wheel (2a, 2b), the flexible machine part at its both ends extending outside the flotation piece, a counterweight arranged at a first end of the flexible machine part, anchoring means arranged at a second end of the flexible machine part, at least one generator arranged in the flotation piece, and means for converting motion of both the first and the second transmission wheels (2a, 2b) into motion rotating the at least one generator,the transmission wheels (2a, 2b) are arranged at a distance from the centre of gravity of the flotation piece, on different sides thereof, characterized in that the flotation piece comprises at least two flotation blocks (11a, 11b) pivotably fastened to one another by a joint. a flotation piece arrangeable to float in water, a first and a second transmission wheel (2a, 2b) arranged in the flotation piece rotatably and spaced apart from one another, a pull-transmitting flexible machine part arranged into power-transmitting contact with the first and the second transmission wheel (2a, 2b), the flexible machine part at its both ends extending outside the flotation piece, a counterweight arranged at a first end of the flexible machine part, anchoring means arranged at a second end of the flexible machine part, at least one generator arranged in the flotation piece, and means for converting motion of both the first and the second transmission wheels (2a, 2b) into motion rotating the at least one generator,the transmission wheels (2a, 2b) are arranged at a distance from the centre of gravity of the flotation piece, on different sides thereof, characterized in that the flotation piece comprises at least two flotation blocks (11a, 11b) pivotably fastened to one another by a joint.
An LED-driver, comprising: - an actively switched PFC circuitry, - a DALI bus interface connectable to a DALI bus, - a bus power supply unit configured to supply power to the DALI bus interface for powering the DALI bus by tapping a supply voltage for the DALI bus interface off an output voltage of the actively switched PFC circuitry, - a control circuitry for feedback control of the output voltage of the actively switched PFC by the control circuitry being configured for controlling a switch of the actively switched PFC, and - a microcontroller configured to control the DALI bus interface and to communicate with the control circuitry, characterized in that the microcontroller is further configured to selectively increase a control speed of the actively switched PFC in time periods in which the microcontroller sends out DALI signals over the DALI bus interface or detects incoming DALI signals from the DALI bus interface. - an actively switched PFC circuitry, - a DALI bus interface connectable to a DALI bus, - a bus power supply unit configured to supply power to the DALI bus interface for powering the DALI bus by tapping a supply voltage for the DALI bus interface off an output voltage of the actively switched PFC circuitry, - a control circuitry for feedback control of the output voltage of the actively switched PFC by the control circuitry being configured for controlling a switch of the actively switched PFC, and - a microcontroller configured to control the DALI bus interface and to communicate with the control circuitry,
Stranding element, with at least one essentially stationary storage container for the good to be stranded and with at least one rotating guidance device (1, 5, 6, 6a) for the good for guiding the good from the storage container essentially in parallel to the rotational axis of the guidance device (1, 5, 6, 6a) in the direction of the stranding region, wherein the guidance device is swivel-mounted in a carrier structure, characterized in that the at least one guidance device (1, 5, 6, 6a) is swivel-mounted by means of a bearing arrangement, which bearing arrangement is completely within the field of rotation of the good and is attached to the carrier structure via at least one holding assembly extending radially from the bearing assembly across the field of rotation of the good and axially spaced away from the guidance device (1, 5, 6, 6a), which holding assembly comprises at least one passage (11a, 19) at least temporarily opening in the circumferential direction for the good to pass through.
A dialysis acid precursor composition for use during preparation of a dialysis acid concentrate solution and for mixing with water and a bicarbonate containing concentrate into a ready-for-use dialysis solution, wherein said dialysis acid precursor composition consist of powder components comprising sodium chloride, at least one dry acid and at least one magnesium salt, and optionally potassium salt, calcium salt, and glucose, wherein said at least one magnesium salt and said optional glucose are present as anhydrous components in said dialysis acid precursor composition and wherein said dialysis acid precursor composition is sealed in a moisture-resistant container with a water vapor transmission rate less than 0.3 g/m 2 /d at 38°C/90%RH.
A toy brick comprising: - a body part with one or more sidewalls extending around the outer periphery of said toy brick, said one or more sidewalls at least partially define an interior of said toy brick and said sidewalls extend from a bottom face to a top portion of said body part, - an elongated rib arranged interiorly in said body part, said elongated rib extends essentially between said bottom face towards said top portion of said body part, - a width of said elongated rib, in an end portion near said top portion and parallel to a portion of a face accommodating said elongated rib, which width near said top portion is greater than or equal to the width of said elongated rib near its end, facing said bottom face. characterised in that the width of said elongated rib, in a central portion in-between said bottom face and said top portion and parallel to the portion of the face accommodating said elongated rib, is greater than the width of said elongated rib, in the end portion near said top portion, parallel to a face whereon said elongated rib is disposed. - a body part with one or more sidewalls extending around the outer periphery of said toy brick, said one or more sidewalls at least partially define an interior of said toy brick and said sidewalls extend from a bottom face to a top portion of said body part, - an elongated rib arranged interiorly in said body part, said elongated rib extends essentially between said bottom face towards said top portion of said body part, - a width of said elongated rib, in an end portion near said top portion and parallel to a portion of a face accommodating said elongated rib, which width near said top portion is greater than or equal to the width of said elongated rib near its end, facing said bottom face.
A method for dynamically patching a function, comprising: traversing all tasks in a software system in order to determine to-be-modified tasks, wherein the to-be-modified tasks are tasks of which Program Counter, PC, pointers are located at N instructions at the initial instructions of the function to be patched, and positions of the N instructions are used to record modified long jump instructions of a function to be patched; tagging the to-be-modified tasks of all the tasks in order to determine types of all the tasks, wherein the tag is used to identify that the long jump instructions, which are completed by N first instructions, at initial instructions of the function to be patched of the software system need to be restored to original instructions of the function to be patched when the to-be modified task is running, and the tag is set in a task control block of the to-be modified task, wherein N is an integer more than or equal to 3; restoring the modified long jump instructions, which are completed by the N first instructions, at the initial instructions of the function to be patched of the software system to the original instructions of the function to be patched according to a tag added in advance in the task control block of a currently running task of the software system; and modifying, when the currently running task quits running, the first N original instructions of the initial instructions of the function to be patched into long jump instructions in order to dynamically patch the function to be patched. traversing all tasks in a software system in order to determine to-be-modified tasks, wherein the to-be-modified tasks are tasks of which Program Counter, PC, pointers are located at N instructions at the initial instructions of the function to be patched, and positions of the N instructions are used to record modified long jump instructions of a function to be patched; tagging the to-be-modified tasks of all the tasks in order to determine types of all the tasks, wherein the tag is used to identify that the long jump instructions, which are completed by N first instructions, at initial instructions of the function to be patched of the software system need to be restored to original instructions of the function to be patched when the to-be modified task is running, and the tag is set in a task control block of the to-be modified task, wherein N is an integer more than or equal to 3; restoring the modified long jump instructions, which are completed by the N first instructions, at the initial instructions of the function to be patched of the software system to the original instructions of the function to be patched according to a tag added in advance in the task control block of a currently running task of the software system; and modifying, when the currently running task quits running, the first N original instructions of the initial instructions of the function to be patched into long jump instructions in order to dynamically patch the function to be patched.
A water based primer composition, comprising (a) an aqueous polyurethane dispersion, and (b) an organic solvent, wherein said organic solvent is selected from 2,5,7,10-tetraoxaundecane, propylene carbonate, dimethyl-2-methylglutarate (IRIS) and dimethyl sulfoxide (DMSO), wherein said organic solvent comprises at least TOU. (a) an aqueous polyurethane dispersion, and (b) an organic solvent, wherein said organic solvent is selected from 2,5,7,10-tetraoxaundecane, propylene carbonate, dimethyl-2-methylglutarate (IRIS) and dimethyl sulfoxide (DMSO), wherein said organic solvent comprises at least TOU.
Gas turbine, in particular an aircraft engine gas turbine, comprising a shaft and a bladed turbine rotor connected thereto, which rotor comprises a first rotor portion, which has a downstream-most rotor blade of the turbine rotor and delimits a first chamber in the radial direction, which chamber communicates with a first gas passage arranged in the shaft, and a second rotor portion that is axially adjacent to the first rotor portion, which second rotor portion has at least one second rotor blade of the turbine rotor and delimits, in the radial direction, a second chamber that is axially adjacent to the first chamber and that communicates with a second gas passage, the first rotor portion comprising at least one first outlet opening for discharging gas out of the first chamber upstream of the downstream-most rotor blade, characterized in that the turbine rotor is a low-pressure turbine rotor of the gas turbine, and in that the first chamber is delimited downstream in the axial direction by a cover that is fixed to the rotor and that overlaps a downstream end face of the shaft at least in part in the radial direction.
A method for forming an insulating film, comprising a step of coating with silicon dioxide fine particles, in which a substrate is coated with a silicon dioxide dispersion containing silicon dioxide fine particles, a polymer to stabilize the dispersed state of silicon dioxide fine particles and to function as a binder after the dispersion is applied, a surfactant and a dispersion medium; a step of coating with polysilazane, in which the substrate surface coated with the silicon dioxide dispersion is further coated with a polysilazane composition; and a step of heating, in which the substrate coated with the polysilazane composition is heated, so as to covert the polysilazane into silicon dioxide and thereby to form an insulating film made of the silicon dioxide fine particles and the silicon dioxide derived from the polysilazane. a step of coating with silicon dioxide fine particles, in which a substrate is coated with a silicon dioxide dispersion containing silicon dioxide fine particles, a polymer to stabilize the dispersed state of silicon dioxide fine particles and to function as a binder after the dispersion is applied, a surfactant and a dispersion medium; a step of coating with polysilazane, in which the substrate surface coated with the silicon dioxide dispersion is further coated with a polysilazane composition; and a step of heating, in which the substrate coated with the polysilazane composition is heated, so as to covert the polysilazane into silicon dioxide and thereby to form an insulating film made of the silicon dioxide fine particles and the silicon dioxide derived from the polysilazane.
A polycarbonate comprising a constituent unit represented by Formula and constituent unit having a hydrocarbon group containing a cyclic structure: where R 1 and R 2 each independently denote a hydrocarbon group, and each R 3 independently denotes a hydrogen atom, a heteroatom-containing group, a halogen atom-containing group, a linear alkyl group having from 1 to 6 carbon atoms, a branched alkyl group having from 3 to 6 carbon atoms, or a group including an aryl group and having from 6 to 12 carbon atoms.
A fitting for tilting or tilting-sliding of a sash (2, 2a) of a window or a door, comprising at least one sash bracket, which is fastenable on an upper sash spar of the sash and has at least two projecting or protruding legs (3a, 3b, 3e), - wherein one end of a first deployment arm of the fitting is linked on one leg and the other end of the deployment arm is articulated on a linkage point with a slider part, which is capable of moving by sliding in a guide rail fastenable on top on the frame; - having a second arm, which is linked at one end on the first deployment arm at a distance from its linkage point, wherein an eccentric pin, which protrudes through a slot in the second leg, is arranged at another end of the second arm, wherein the eccentric pin, during an opening movement of the first deployment arm and simultaneous pivoting of the second arm, can be guided in the slot along a leaf spring of the fitting, which is arranged on the sash bracket; - wherein, in front of one end of the slot, an elevation of the leaf spring engages laterally over the slot at least regionally so that an eccentric region of the eccentric pin is movable over the elevation during the opening movement, to thereafter be latched between slot end and elevation. - wherein one end of a first deployment arm of the fitting is linked on one leg and the other end of the deployment arm is articulated on a linkage point with a slider part, which is capable of moving by sliding in a guide rail fastenable on top on the frame; - having a second arm, which is linked at one end on the first deployment arm at a distance from its linkage point, wherein an eccentric pin, which protrudes through a slot in the second leg, is arranged at another end of the second arm, wherein the eccentric pin, during an opening movement of the first deployment arm and simultaneous pivoting of the second arm, can be guided in the slot along a leaf spring of the fitting, which is arranged on the sash bracket; - wherein, in front of one end of the slot, an elevation of the leaf spring engages laterally over the slot at least regionally so that an eccentric region of the eccentric pin is movable over the elevation during the opening movement, to thereafter be latched between slot end and elevation.
A method of connecting a foundation structure to a support structure of a wind energy installation, wherein the foundation structure comprises a circumferential flange disposed on the upper side thereof, the method comprising the steps of: - positioning and fixing the foundation structure in or on a substrate, - filling a circumferential channel in the circumferential flange of the foundation structure with a self-levelling casting compound at least up to a minimum casting depth, - positioning a support structure on the foundation structure, wherein the support structure is placed on the hardened casting compound such that a lower circumferential flange is located in the channel, - attaching the support structure to the foundation structure by means of a flange connection with connecting elements, - tensioning the connecting elements so that the casting compound is subjected to a prestress, characterised in that, during or after the establishing of the flange connection between the foundation structure and the support structure, a seal is inserted and / or positioned into or in a gap located outwardly between an inner wall of the channel and an outer shell of the support structure. - positioning and fixing the foundation structure in or on a substrate, - filling a circumferential channel in the circumferential flange of the foundation structure with a self-levelling casting compound at least up to a minimum casting depth, - positioning a support structure on the foundation structure, wherein the support structure is placed on the hardened casting compound such that a lower circumferential flange is located in the channel, - attaching the support structure to the foundation structure by means of a flange connection with connecting elements, - tensioning the connecting elements so that the casting compound is subjected to a prestress,
A method for determining tolerance of a cancer cell to an epidermal growth factor receptor inhibitor in a human patient suffering from a cancer, the method comprising: a step of determining the presence or absence of a mutation of a 326th amino acid residue of an amino acid sequence of a B-Raf protein of the cancer cell by using a sample containing the cancer cell collected from the human patient, wherein the cancer cell is determined as tolerant to the epidermal growth factor receptor inhibitor, when the mutation of the amino acid residue is present. a step of determining the presence or absence of a mutation of a 326th amino acid residue of an amino acid sequence of a B-Raf protein of the cancer cell by using a sample containing the cancer cell collected from the human patient, wherein the cancer cell is determined as tolerant to the epidermal growth factor receptor inhibitor, when the mutation of the amino acid residue is present.