mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting errors in a machine , comprising at least one electric drive unit comprising a rotor, for driving an assembly (2a - 2e) of the machine , wherein a rotation angle sensor is assigned to the drive unit , which is designed to emit a measurement signal as the rotor rotates, wherein the measurement signal emitted by the rotation angle sensor or a measurement signal derived therefrom is analysed and evaluated in respect of abnormalities indicating errors, wherein the measurement signal is compared in the time range or in the frequency range with a reference measurement signal , and wherein, in the event of the measurement signal deviating from the reference measurement signal by a tolerance threshold , an error detection signal is generated, characterised in that the drive unit is a servomotor with a servo regulator, that the rotation angle sensor is a rotation angle sensor provided inherently in the servomotor, of which the signals are drawn on in the servo regulator for the controlled rotation of the rotor, and that the reference measurement signal is a reference measurement signal recorded when the machine is in a new state.
Method for strapping objects, the method comprising the following steps: • conveying an object to a strapping station using a conveying device , • forming at least one loop of strapping tape around the object using a strapping device, • connecting the ends of the loop with one another, • controlling strapping parameters which comprise at least the strapping position using a control unit , characterized by the following steps: • detecting the optical properties of the object using a camera ; • evaluating of the image of the camera for determining areas which are not to be covered by strapping; • controlling the strapping position so that the strapping position is outside the areas not to be strapped. • conveying an object to a strapping station using a conveying device , • forming at least one loop of strapping tape around the object using a strapping device, • connecting the ends of the loop with one another, • controlling strapping parameters which comprise at least the strapping position using a control unit , • detecting the optical properties of the object using a camera ; • evaluating of the image of the camera for determining areas which are not to be covered by strapping; • controlling the strapping position so that the strapping position is outside the areas not to be strapped.
A control method for controlling an actuator of a cobot, the actuator being functionally connected to a load for handling and being controlled by a monitor and control unit , the method comprising the steps of: • detecting an intention of a user of the cobot to handle the load for handling; • applying an increasing command to the actuator seeking to cause the load for handling to move until detecting a movement of the actuator or of the load for handling or until detecting that the intention to handle the load for handling has ceased; • storing the value reached by the command and/or by a sensor linked to the actuator when a movement of the actuator or of the load for handling is detected or when detecting that the intention to handle the load for handling has ceased; • using the stored value reached by the command and/or by the sensor linked to the actuator to determine an estimate of the opposing force (M 50es , R 50es ) exerted by the load for handling; and • controlling the actuator by means of a force servocontrol relationship using the estimate of the opposing force (M 50es , R 50es ) exerted by the load for handling in order to establish the commands to be applied to the actuator . • detecting an intention of a user of the cobot to handle the load for handling; • applying an increasing command to the actuator seeking to cause the load for handling to move until detecting a movement of the actuator or of the load for handling or until detecting that the intention to handle the load for handling has ceased; • storing the value reached by the command and/or by a sensor linked to the actuator when a movement of the actuator or of the load for handling is detected or when detecting that the intention to handle the load for handling has ceased; • using the stored value reached by the command and/or by the sensor linked to the actuator to determine an estimate of the opposing force (M 50es , R 50es ) exerted by the load for handling; and • controlling the actuator by means of a force servocontrol relationship using the estimate of the opposing force (M 50es , R 50es ) exerted by the load for handling in order to establish the commands to be applied to the actuator .
A method of operating a blood glucose meter , the method comprising: receiving and processing time data transmitted wirelessly with the blood glucose meter; generating a plurality of glucose concentration measurement values from a plurality of tests performed with the blood glucose meter; correlating the plurality of glucose concentration measurement values with particular points in time or intervals of time during the day, wherein the correlated plurality of glucose concentration measurements establishes a range of glucose measurement values associated with the particular point in time or time interval; comparing a subsequent measured blood glucose concentration value derived from a subsequent test performed during the particular point in time or time interval to the range of glucose measurement values associated with the particular point in time or time interval; and alerting a user to perform another test when the subsequent measured blood glucose concentration value falls outside of the determined range of glucose measurement values. receiving and processing time data transmitted wirelessly with the blood glucose meter; generating a plurality of glucose concentration measurement values from a plurality of tests performed with the blood glucose meter; correlating the plurality of glucose concentration measurement values with particular points in time or intervals of time during the day, wherein the correlated plurality of glucose concentration measurements establishes a range of glucose measurement values associated with the particular point in time or time interval; comparing a subsequent measured blood glucose concentration value derived from a subsequent test performed during the particular point in time or time interval to the range of glucose measurement values associated with the particular point in time or time interval; and alerting a user to perform another test when the subsequent measured blood glucose concentration value falls outside of the determined range of glucose measurement values.
A method for producing wood chips, in particular from recycled wood, having - a material feed in at least one first supporting structure which is tailored to the material feed , - a first sorting for the material to be crushed in at least one second supporting structure which is tailored to the first sorting , - a material crushing in at least one third supporting structure which is tailored to the material crushing , - a second sorting for the crushed material in at least one fourth supporting structure which is tailored to the second sorting , and wherein the first, second, third and fourth supporting structure are arranged in a mobile or semi-mobile manner and are either connected directly to one another or by material-carrying lines , wherein the fed material is conveyed from the material feed by a first material-carrying line to the first sorting , sorted and fed by a second material-carrying line from the first sorting to the material crushing and crushed there into chips and fed from there by a third material-carrying line to the second sorting for the crushed material, where the crushed material is sorted. - a material feed in at least one first supporting structure which is tailored to the material feed , - a first sorting for the material to be crushed in at least one second supporting structure which is tailored to the first sorting , - a material crushing in at least one third supporting structure which is tailored to the material crushing , - a second sorting for the crushed material in at least one fourth supporting structure which is tailored to the second sorting , and wherein the first, second, third and fourth supporting structure are arranged in a mobile or semi-mobile manner and are either connected directly to one another or by material-carrying lines , wherein the fed material is conveyed from the material feed by a first material-carrying line to the first sorting , sorted and fed by a second material-carrying line from the first sorting to the material crushing and crushed there into chips and fed from there by a third material-carrying line to the second sorting for the crushed material, where the crushed material is sorted.
A modular storage tank assembly for a fire suppression system , comprising: - a body defining an internal volume structured to hold a fire suppression agent, the body comprising: - a plurality of planar side portions defining the internal volume ; - at least one body inlet aperture ; - at least one body outlet aperture ; - a first set of support members extending along at least a first surface of at least one of the plurality of planar side portions ; and - a second set of support members extending along at least a second surface of at least one of the plurality of planar side portions , wherein the first set of support members extends perpendicular to the second set of support members ; - a case configured to surround the body , the case comprising: - a case body ; - a first flange on a first side of the case body and a second flange on a second side of the case body ; - at least one case inlet aperture ; and - at least one case outlet aperture , wherein the modular storage tank assembly is coupled to at least one cartridge assembly, and wherein the at least one cartridge assembly is configured to release the fire suppression agent from the modular storage tank assembly . - a body defining an internal volume structured to hold a fire suppression agent, the body comprising: - a plurality of planar side portions defining the internal volume ; - at least one body inlet aperture ; - at least one body outlet aperture ; - a first set of support members extending along at least a first surface of at least one of the plurality of planar side portions ; and - a second set of support members extending along at least a second surface of at least one of the plurality of planar side portions , wherein the first set of support members extends perpendicular to the second set of support members ; - a plurality of planar side portions defining the internal volume ; - at least one body inlet aperture ; - at least one body outlet aperture ; - a first set of support members extending along at least a first surface of at least one of the plurality of planar side portions ; and - a second set of support members extending along at least a second surface of at least one of the plurality of planar side portions , wherein the first set of support members extends perpendicular to the second set of support members ; - a case configured to surround the body , the case comprising: - a case body ; - a first flange on a first side of the case body and a second flange on a second side of the case body ; - at least one case inlet aperture ; and - at least one case outlet aperture , - a case body ; - a first flange on a first side of the case body and a second flange on a second side of the case body ; - at least one case inlet aperture ; and - at least one case outlet aperture ,
Adhesive closure part, having a first carrier strip with interlocking elements arranged on one side of said strip and having a second carrier strip comprising, connected to the first carrier strip , on its side facing away from the interlocking elements , a connecting means , the second carrier strip being wider than the first carrier strip and protruding over the adjacent longitudinal edge of the first carrier strip with at least one free side edge region , and both carrier strips being able to be bent along and transverse to their longitudinal orientation, characterised in that at least one free side edge region of the second carrier strip is provided with weakened resistance such that bending of both carrier strips transverse to their longitudinal orientation is facilitated; in that the respective weakened resistance of the first and second carrier strip subdivides the interlocking elements of the first carrier strip into adhesive segments arranged in the form of islands, which are oriented one behind the other on a respective bending line; in that the interlocking elements extend along the bending line in a longitudinal strip continuously past the assignable weakened resistance from adhesive segment to adhesive segment; in that the respective weakened resistance is formed by at least one recess in at least one side edge region of the second carrier strip ; and in that the recesses are designed to be identical and have a V-shape tapering inwards from the respective longitudinal edge . characterised in that at least one free side edge region of the second carrier strip is provided with weakened resistance such that bending of both carrier strips transverse to their longitudinal orientation is facilitated; in that the respective weakened resistance of the first and second carrier strip subdivides the interlocking elements of the first carrier strip into adhesive segments arranged in the form of islands, which are oriented one behind the other on a respective bending line; in that the interlocking elements extend along the bending line in a longitudinal strip continuously past the assignable weakened resistance from adhesive segment to adhesive segment; in that the respective weakened resistance is formed by at least one recess in at least one side edge region of the second carrier strip ; and in that the recesses are designed to be identical and have a V-shape tapering inwards from the respective longitudinal edge .
A method for manufacturing a barrier layer on a flexible substrate, the method comprising: - a first step comprising depositing an inorganic oxide layer on the flexible substrate using an atmospheric pressure plasma; - a second step comprising consecutive deposition of between 1 and 70 atomic layers on the inorganic oxide layer by atomic layer deposition. - a first step comprising depositing an inorganic oxide layer on the flexible substrate using an atmospheric pressure plasma; - a second step comprising consecutive deposition of between 1 and 70 atomic layers on the inorganic oxide layer by atomic layer deposition.
A method for fabricating a dry energy storage device super-fibrillized electrode film comprising: forming a first dry electrode mixture comprising dry carbon particles and dry fibrillizable binder particles; super-fibrillizing the binder in the dry electrode film mixture to form a super-fibrillized matrix within the electrode film mixture, wherein super-fibrillizing the binder comprises: fibrillizing the binder in the dry electrode film mixture to form a first fibrillized matrix; destructuring the first fibrillized matrix to form a powdered mixture of carbon particles and fibrillized binder particles, wherein destructuring is performed by passing the first fibrillized matrix through a strainer, sifter, mesh, riddle, screen, sieve, or a combination thereof; and fibrillizing the powdered mixture to form a second fibrillized matrix, wherein the second fibrillized matrix comprises the super-fibrillized matrix; and calendaring the super-fibrillized electrode film mixture to form a free-standing super-fibrillized electrode film. forming a first dry electrode mixture comprising dry carbon particles and dry fibrillizable binder particles; super-fibrillizing the binder in the dry electrode film mixture to form a super-fibrillized matrix within the electrode film mixture, wherein super-fibrillizing the binder comprises: fibrillizing the binder in the dry electrode film mixture to form a first fibrillized matrix; destructuring the first fibrillized matrix to form a powdered mixture of carbon particles and fibrillized binder particles, wherein destructuring is performed by passing the first fibrillized matrix through a strainer, sifter, mesh, riddle, screen, sieve, or a combination thereof; and fibrillizing the powdered mixture to form a second fibrillized matrix, wherein the second fibrillized matrix comprises the super-fibrillized matrix; and fibrillizing the binder in the dry electrode film mixture to form a first fibrillized matrix; destructuring the first fibrillized matrix to form a powdered mixture of carbon particles and fibrillized binder particles, wherein destructuring is performed by passing the first fibrillized matrix through a strainer, sifter, mesh, riddle, screen, sieve, or a combination thereof; and fibrillizing the powdered mixture to form a second fibrillized matrix, wherein the second fibrillized matrix comprises the super-fibrillized matrix; and calendaring the super-fibrillized electrode film mixture to form a free-standing super-fibrillized electrode film.
A seal for reducing leakage about a rotating shaft of a gas turbine engine, the rotating shaft having an axis, the seal comprising: a rotating component configured to be positioned radially outward from and surround the rotating shaft , and including a rotating cylinder defining an annular oil chamber for receiving oil; and a static component including: a sealing plate configured to extend into the annular chamber such that, in use, the oil fills a gap between the sealing plate and the rotating cylinder to reduce air leakage between the rotating component and the static component in response to rotation of the rotating component ; characterised in that the static component further includes a stepped cylinder having a first step , a second step , and a third step , wherein the second step has a greater diameter than the first step and the third step has a greater diameter than the second step , the sealing plate extending radially outward from the first step ; and an attachment platform extending radially outward from the third step . a rotating component configured to be positioned radially outward from and surround the rotating shaft , and including a rotating cylinder defining an annular oil chamber for receiving oil; and a static component including: a sealing plate configured to extend into the annular chamber such that, in use, the oil fills a gap between the sealing plate and the rotating cylinder to reduce air leakage between the rotating component and the static component in response to rotation of the rotating component ;
A patient bearing area of an operating table having a device for heating the patient bearing area , having a heating element for heating a fluid used for heat transfer, an elastically deformable flow layer of the patient bearing area through which the heated fluid flows, and having a fluid-impermeable sealing layer which is arranged on the flow layer and a first air-impermeable side cushion and a second air-impermeable side cushion , wherein the first side cushion is arranged on one side next to the flow layer and the second side cushion is arranged on the other side next to the flow layer , wherein an outer surface of the sealing layer facing away from the flow layer is a surface of the patient bearing area intended for patient contact, wherein the flow layer has at least one inlet region for introducing the fluid heated by the heating element into the flow layer , and wherein the flow layer has at least one outlet region for exiting the fluid from the flow layer , and wherein the inlet region adjoins the second side cushion and wherein the outlet region adjoins the first side cushion . having a heating element for heating a fluid used for heat transfer, an elastically deformable flow layer of the patient bearing area through which the heated fluid flows, and having a fluid-impermeable sealing layer which is arranged on the flow layer and a first air-impermeable side cushion and a second air-impermeable side cushion , wherein the first side cushion is arranged on one side next to the flow layer and the second side cushion is arranged on the other side next to the flow layer , wherein an outer surface of the sealing layer facing away from the flow layer is a surface of the patient bearing area intended for patient contact, wherein the flow layer has at least one inlet region for introducing the fluid heated by the heating element into the flow layer , and wherein the flow layer has at least one outlet region for exiting the fluid from the flow layer , and wherein the inlet region adjoins the second side cushion and wherein the outlet region adjoins the first side cushion .
A computer-implemented method comprising: receiving, at an Internet of Things, IoT, annotation entity in a network of connected IoT entities , a first data stream from a first IoT entity in the network of connected IoT entities ; determining context information associated with the first data stream; storing the context information in an M2M service layer resource; receiving, at the IoT annotation entity , a second data stream from a second IoT entity in the network of connected IoT entities, the second data stream comprising multiple data items in multiple data windows; determining , at the IoT annotation entity and based on the context information, a data annotation to be applied to the second data stream at a window level; and annotating the second data stream at the IoT annotation entity by applying the data annotation at the window level to one or more data windows, wherein at least one of the one or more data windows comprises a consecutive plurality of the data items defined by a size of that data window indicating the number of the plurality of the data items, a first data item of that data window, and an ending data item of that data window. receiving, at an Internet of Things, IoT, annotation entity in a network of connected IoT entities , a first data stream from a first IoT entity in the network of connected IoT entities ; determining context information associated with the first data stream; storing the context information in an M2M service layer resource; receiving, at the IoT annotation entity , a second data stream from a second IoT entity in the network of connected IoT entities, the second data stream comprising multiple data items in multiple data windows; determining , at the IoT annotation entity and based on the context information, a data annotation to be applied to the second data stream at a window level; and annotating the second data stream at the IoT annotation entity by applying the data annotation at the window level to one or more data windows, wherein at least one of the one or more data windows comprises a consecutive plurality of the data items defined by a size of that data window indicating the number of the plurality of the data items, a first data item of that data window, and an ending data item of that data window.