mhurhangee/patent-ind-claim-en huggingface dataset:
A base of a tower assembly comprising: a foundation ; and a core component located on the foundation and said core component including: a body having an arcuate outer sidewall and an arcuate inner sidewall , the body including an access hole extending from the outer sidewall through a bottom of the body, and the body including at least one reinforcement member located between the outer sidewall and the inner sidewall , the at least one reinforcement member extending into the foundation ; and a flange extending from the arcuate inner sidewall of the body, the flange including at least one bore hole configured to receive a post-tensioning tendon . a foundation ; and a core component located on the foundation and said core component including: a body having an arcuate outer sidewall and an arcuate inner sidewall , the body including an access hole extending from the outer sidewall through a bottom of the body, and the body including at least one reinforcement member located between the outer sidewall and the inner sidewall , the at least one reinforcement member extending into the foundation ; and a flange extending from the arcuate inner sidewall of the body, the flange including at least one bore hole configured to receive a post-tensioning tendon . a body having an arcuate outer sidewall and an arcuate inner sidewall , the body including an access hole extending from the outer sidewall through a bottom of the body, and the body including at least one reinforcement member located between the outer sidewall and the inner sidewall , the at least one reinforcement member extending into the foundation ; and a flange extending from the arcuate inner sidewall of the body, the flange including at least one bore hole configured to receive a post-tensioning tendon .
An electronic assembly , in particular for motor vehicle doors or motor vehicle flaps , having: a detection apparatus for keyless access to the vehicle , a container for arranging the detection device , wherein the container has a plug connector receptacle , potting compound arranged inside the container to protect the detection apparatus from environmental influences and improve performance, a plug connector for the feedthrough of electrical conductors from the inside to the outside of the container, wherein the plug connector has at least one electrical conductor for coupling a lighting device and/or a vehicle-side controller with the detection apparatus and a base body for receiving the electrical conductor , wherein the base body is produced in a plastic encapsulation process of the electrical conductor , wherein the plug connector can be arranged in the plug connector receptacle of the container , wherein the plug connector and/or the plug connector receptacle includes a sealing means , characterized in that at least one fastening means for the detection apparatus is provided on the base body of the plug connector , in particular in the form of at least one locking hook. a detection apparatus for keyless access to the vehicle , a container for arranging the detection device , wherein the container has a plug connector receptacle , potting compound arranged inside the container to protect the detection apparatus from environmental influences and improve performance, a plug connector for the feedthrough of electrical conductors from the inside to the outside of the container, wherein the plug connector has at least one electrical conductor for coupling a lighting device and/or a vehicle-side controller with the detection apparatus and a base body for receiving the electrical conductor , wherein the base body is produced in a plastic encapsulation process of the electrical conductor , wherein the plug connector can be arranged in the plug connector receptacle of the container , wherein the plug connector and/or the plug connector receptacle includes a sealing means , characterized in that at least one fastening means for the detection apparatus is provided on the base body of the plug connector , in particular in the form of at least one locking hook.
A ventilation device , comprising at least one ventilator with at least one controllable respiratory gas source and a programmable control apparatus and at least one sensor apparatus for determining pressure and/or flow of the respiratory gas, wherein the control apparatus controls the respiratory gas source to specify a first ventilation pattern (regarding pressure, flow, volume, frequency), wherein in the ventilation device has three further sensor apparatuses , wherein one sensor apparatus has a plurality of individual sensors (3, 3', 3"...), which are designed to generate and/or measure electrical potentials and are designed to non-invasively determine the electrical impedance (EI) of the lung of a patient, wherein the second sensor apparatus is designed to non-invasively determine the carbon dioxide provision, wherein the third sensor apparatus is designed to non-invasively determine the oxygen provision of the patient, wherein the control apparatus analyzes the sensor measured values of the El sensor apparatus to determine the instantaneous ventilation of the lung during ventilation with the first ventilation pattern , wherein the control apparatus analyzes the sensor measured values of the second sensor apparatus to determine the instantaneous carbon dioxide provision , and wherein the control apparatus analyzes the sensor measured values of the third sensor apparatus to determine the instantaneous oxygen provision, characterized in that the control apparatus controls the respiratory gas source to specify a second ventilation pattern when the sensor apparatus has an increased EIT sum signal and/or a reduced EIT change frequency, compared to the first ventilation pattern , and a reduced measure of the oxygen provision, wherein the second ventilation pattern has an increased frequency, compared to the first ventilation pattern , and/or an at least temporary increase in the inspiration time and/or an adjustment of the PEEP.
An actuator module , comprising: a motor part including a drive shaft and a drive part which includes the stator of an electric motor and is configured to rotate the drive shaft about an axis; a reducer installed on one axial side of the drive part and configured to increase an output torque according to driving of the motor part ; a brake installed on the opposite axial side of the drive part and configured to suppress rotation of the motor part ; an encoder installed on the axial side of the brake opposite to the drive part and configured to sense an operation of the drive shaft ; a controller installed on the axial side of the encoder opposite to the brake and electrically connected to the motor part to control the motor part; a first housing configured to surround the motor part , the reducer , the brake , the encoder , and the controller , wherein an airflow path through which an airflow can flow in order to dissipate the heat generated inside the actuator module to the outside is formed to extend from the motor part ; characterized in that an airflow circulation member configured to circulate an airflow located around the motor part is formed in the drive shaft at an axial position between the motor part and the brake , wherein the airflow circulation member extends such that at least a portion of the airflow circulation member is located within the airflow path . a motor part including a drive shaft and a drive part which includes the stator of an electric motor and is configured to rotate the drive shaft about an axis; a reducer installed on one axial side of the drive part and configured to increase an output torque according to driving of the motor part ; a brake installed on the opposite axial side of the drive part and configured to suppress rotation of the motor part ; an encoder installed on the axial side of the brake opposite to the drive part and configured to sense an operation of the drive shaft ; a controller installed on the axial side of the encoder opposite to the brake and electrically connected to the motor part to control the motor part; a first housing configured to surround the motor part , the reducer , the brake , the encoder , and the controller , wherein an airflow path through which an airflow can flow in order to dissipate the heat generated inside the actuator module to the outside is formed to extend from the motor part ; characterized in that an airflow circulation member configured to circulate an airflow located around the motor part is formed in the drive shaft at an axial position between the motor part and the brake , wherein the airflow circulation member extends such that at least a portion of the airflow circulation member is located within the airflow path .
A computer-implemented method for processing blockchain data by a blockchain node of a blockchain network in a trusted execution environment, TEE, the computer-implemented method comprising: receiving a request from an application component of the blockchain node to execute one or more software instructions in the TEE; determining one or more blocks stored on the blockchain node required for executing the one or more software instructions, wherein the one or more blocks are stored on the blockchain node and appended to the blockchain network; performing error correction coding of the one or more blocks in the TEE to generate one or more encoded blocks; dividing each of the one or more encoded blocks to a plurality of datasets based on the one or more software instructions; selecting one or more datasets from the plurality of datasets of each of the one or more encoded blocks based on the one or more software instructions; hashing the one or more selected datasets to generate one or more hash values corresponding to the one or more selected datasets; storing the one or more hash values and a remainder of the plurality of datasets not selected from the plurality of datasets to the blockchain node, wherein the datasets corresponding to the hash values are stored on at least one different node of the blockchain network; and instructing the blockchain node to delete a block corresponding to the one or more hash values and the remainder of the plurality of datasets after the one or more hash values and the remainder of the plurality of datasets are stored on the blockchain node. receiving a request from an application component of the blockchain node to execute one or more software instructions in the TEE; determining one or more blocks stored on the blockchain node required for executing the one or more software instructions, wherein the one or more blocks are stored on the blockchain node and appended to the blockchain network; performing error correction coding of the one or more blocks in the TEE to generate one or more encoded blocks; dividing each of the one or more encoded blocks to a plurality of datasets based on the one or more software instructions; selecting one or more datasets from the plurality of datasets of each of the one or more encoded blocks based on the one or more software instructions; hashing the one or more selected datasets to generate one or more hash values corresponding to the one or more selected datasets; storing the one or more hash values and a remainder of the plurality of datasets not selected from the plurality of datasets to the blockchain node, wherein the datasets corresponding to the hash values are stored on at least one different node of the blockchain network; and instructing the blockchain node to delete a block corresponding to the one or more hash values and the remainder of the plurality of datasets after the one or more hash values and the remainder of the plurality of datasets are stored on the blockchain node.
A lamination for use in an integrated drive generator comprising: a plurality of plates including a body having a pair of opposed cylindrical surfaces and non-cylindrical ditches defined circumferentially intermediate said pair of cylindrical surfaces , and a plurality of passages formed in an outer periphery of said cylindrical surfaces, said passages including holes extending through a slot to said outer periphery, and grooves formed intermediate said holes ; wherein there are five of said holes within each said cylindrical surface; characterized in that said body defines a first distance (d1) from a center axis of said body to said outer periphery, and said grooves extending inwardly from said outer surface of said plate for a second distance (d2), and a ratio of said first distance to said second distance is between 25 and 40; wherein said holes extend for a diameter defining a third distance (d3) and a ratio of said first distance to said third distance being between 10 and 20; wherein a fourth distance (d4) is defined between opposed faces defining said slot , and a ratio of said first distance to said fourth distance is between 30 and 45. a plurality of plates including a body having a pair of opposed cylindrical surfaces and non-cylindrical ditches defined circumferentially intermediate said pair of cylindrical surfaces , and a plurality of passages formed in an outer periphery of said cylindrical surfaces, said passages including holes extending through a slot to said outer periphery, and grooves formed intermediate said holes ; wherein there are five of said holes within each said cylindrical surface; characterized in that said body defines a first distance (d1) from a center axis of said body to said outer periphery, and said grooves extending inwardly from said outer surface of said plate for a second distance (d2), and a ratio of said first distance to said second distance is between 25 and 40; wherein said holes extend for a diameter defining a third distance (d3) and a ratio of said first distance to said third distance being between 10 and 20; wherein a fourth distance (d4) is defined between opposed faces defining said slot , and a ratio of said first distance to said fourth distance is between 30 and 45.
A pocketed spring assembly for a bedding or seating product, said pocketed spring assembly comprising: a plurality of parallel strings of springs, each of the strings being joined to at least one adjacent string , each of the strings comprising a plurality of interconnected outer pockets made from one piece of fabric, each of the outer pockets containing at least one inner pocketed spring and at least one cushion pad , pad, the piece of fabric being joined to itself along a longitudinal seam and having first and second opposed plies of fabric on opposite sides of the springs, the first and second plies being joined by transverse seams between adjacent inner pocketed springs .
An optical body comprising: - a first reflective layer and a second reflective layer ; and - an magneto-optical material layer ; and - an refractive index variable layer between the first reflective layer and the second reflective layer ; and - transparent electrode layers between which the refractive index variable layer is positioned, - wherein the magneto-optical material layer is positioned at a side of the refractive index variable layer oppositely to the second reflective layer and produces Faraday effect; and wherein the rotational angle of output light in respect to input light is changed by varying an input voltage controlled by a voltage control circuit to the transparent electrode layers while substantially maintaining reflectivity. - a first reflective layer and a second reflective layer ; and - an magneto-optical material layer ; and - an refractive index variable layer between the first reflective layer and the second reflective layer ; and - transparent electrode layers between which the refractive index variable layer is positioned, - wherein the magneto-optical material layer is positioned at a side of the refractive index variable layer oppositely to the second reflective layer and produces Faraday effect; and wherein the rotational angle of output light in respect to input light is changed by varying an input voltage controlled by a voltage control circuit to the transparent electrode layers while substantially maintaining reflectivity.
An eyepiece waveguide for an augmented reality display system, the eyepiece waveguide comprising: an optically transmissive substrate having a first surface and a second surface ; a first input coupling grating (ICG) region formed on or in one of the surfaces of the substrate, the first ICG region being configured to receive an input beam of light and to couple the input beam into the substrate as a guided beam; a multi-directional pupil expander (MPE) region formed on or in the first surface of the substrate, the MPE region comprising a plurality of diffractive features which exhibit periodicity along at least a first axis of periodicity and a second axis of periodicity that is non-orthogonal to the first axis, the MPE region being positioned to receive the guided beam from the first ICG region and to diffract it in a plurality of directions to create a plurality of diffracted beams; and an exit pupil expander (EPE) region formed on or in the second surface of the substrate, the EPE region overlapping the MPE region, for example by at least 90%, and the EPE region being configured to out couple one or more of the diffracted beams from the optically transmissive substrate as output beams. an optically transmissive substrate having a first surface and a second surface ; a first input coupling grating (ICG) region formed on or in one of the surfaces of the substrate, the first ICG region being configured to receive an input beam of light and to couple the input beam into the substrate as a guided beam; a multi-directional pupil expander (MPE) region formed on or in the first surface of the substrate, the MPE region comprising a plurality of diffractive features which exhibit periodicity along at least a first axis of periodicity and a second axis of periodicity that is non-orthogonal to the first axis, the MPE region being positioned to receive the guided beam from the first ICG region and to diffract it in a plurality of directions to create a plurality of diffracted beams; and an exit pupil expander (EPE) region formed on or in the second surface of the substrate, the EPE region overlapping the MPE region, for example by at least 90%, and the EPE region being configured to out couple one or more of the diffracted beams from the optically transmissive substrate as output beams.
A method of forging a thermomechanical part of beta or alpha/beta class titanium alloy when considering the structure of the forging obtained from all the forging steps, the method comprising the following steps: - providing a billet made from a titanium alloy possessing a beta transus temperature T β and obtained by melting the master alloy then casting an ingot that is itself forged in application of a thermomechanical cycle; - performing at least one blank forging step (a, b, c, d; a', b', c', d') on said billet, in which said billet is heated (a; a'; e) to a temperature T 1 lower than the beta transus temperature T β prior to performing the forging operation proper (c; c') during which said billet is subjected to plastic deformation, thereby obtaining a blank, and then allowing the blank to cool (d; d'); and - performing a final forging step (A, B, C, D) on said blank, in which said blank is heated (A) to a temperature T 2 higher than the beta transus temperature T β prior to performing the forging operation proper (C) during which said blank is subjected to plastic deformation, thereby obtaining a forging, and then cooling said forging (D); the method being characterized in that said forging operation (c ; c')of the blank forging step implements, at all points of said billet, local deformation that is greater than a minimum deformation ratio so the resulting forging is a beta or alpha/beta class titanium alloy and present an uniform and fine microstructure. - providing a billet made from a titanium alloy possessing a beta transus temperature T β and obtained by melting the master alloy then casting an ingot that is itself forged in application of a thermomechanical cycle; - performing at least one blank forging step (a, b, c, d; a', b', c', d') on said billet, in which said billet is heated (a; a'; e) to a temperature T 1 lower than the beta transus temperature T β prior to performing the forging operation proper (c; c') during which said billet is subjected to plastic deformation, thereby obtaining a blank, and then allowing the blank to cool (d; d'); and - performing a final forging step (A, B, C, D) on said blank, in which said blank is heated (A) to a temperature T 2 higher than the beta transus temperature T β prior to performing the forging operation proper (C) during which said blank is subjected to plastic deformation, thereby obtaining a forging, and then cooling said forging (D);
A component assembly for a wind energy installation comprising an outer component , an inner component which is arranged within the outer component and a pair of rolling bearings (26, 26'; 322, 322'; 332, 332'; 352, 352'; 362, 362'; 382, 382'; 392, 392') which comprises a first rolling bearing and a second rolling bearing , which are arranged at an angle with respect to one another, and which pair of rolling bearings (26, 26'; 322, 322'; 332, 332'; 352, 352'; 362, 362'; 382, 382'; 392, 392') is preloaded by means of a biasing force, wherein the inner component and the outer component are supported by means of the pair of rolling bearings (26, 26'; 322, 322'; 332, 332'; 352, 352'; 362, 362'; 382, 382'; 392, 392') in such a way that they are rotatable with respect to one another about an axis of rotation, wherein the component assembly further comprises a pressure sensor which is arranged in a force flow of the biasing force for determining a preload of the pair of roller bearings (26, 26'; 322, 322'; 332, 332'; 352, 352'; 362, 362'; 382, 382'; 392, 392'), wherein the pressure sensor is constructed as a thin-film sensor and comprises at least a first pressure sensor which is arranged at the first rolling bearing and a second pressure sensor which is arranged at the second rolling bearing .
Aircraft with a fuselage and wings connected thereto, wherein between the fuselage and each wing (2; 3) a support strut (6; 7) extends which is connected both to the fuselage and to the wing (2; 3), wherein the support strut (6; 7) has a hydraulic working cylinder (8, 10; 9, 11) to which hydraulic fluid can be applied in a controlled manner for pivoting the wing (2; 3), characterized in that the working cylinder (8, 10; 9; 11) is coupled to a hydraulic motor and an electric motor-generator such that a piston movement caused by wing vibrations or oscillations drives the hydraulic motor and thus the motor-generator.