mhurhangee/patent-ind-claim-en huggingface dataset:
A control for an electromagnetic holding brake with a coil for releasing the holding brake and maintaining it in the released position, which requires a minimum brake coil voltage to maintain it in the released position, having a DC-DC converter with an input and an output, wherein the DC-DC converter is formed to convert a variable input voltage present at the input into a predetermined switch-on voltage provided at the output and a predetermined holding voltage provided at the output, wherein the holding voltage corresponds to the minimum brake coil voltage, and wherein the DC-DC converter is formed to implement a 2-stage voltage control and, in a first stage, to maintain the switch-on voltage as a regulated DC voltage for a predetermined time, to downregulate the voltage from the switch-on voltage following a predetermined voltage curve to the holding voltage as regulated DC voltage, and to maintain it in a second stage. having a DC-DC converter with an input and an output, wherein the DC-DC converter is formed to convert a variable input voltage present at the input into a predetermined switch-on voltage provided at the output and a predetermined holding voltage provided at the output, wherein the holding voltage corresponds to the minimum brake coil voltage, and wherein the DC-DC converter is formed to implement a 2-stage voltage control and, in a first stage, to maintain the switch-on voltage as a regulated DC voltage for a predetermined time, to downregulate the voltage from the switch-on voltage following a predetermined voltage curve to the holding voltage as regulated DC voltage, and to maintain it in a second stage.
A gas turbine engine comprising: a compressor section (24; 100) including a plurality of stages; a combustor section fluidly connected to the compressor section ; a turbine section fluidly connected to the combustor section ; and a bleed structure (110; 200) radially outward of the plurality of stages, the bleed structure (110; 200) including a body structure (112; 212) having a first set of openings (116; 216) radially outward of a first stage, a second set of openings (118; 218) radially outward of a second stage, and a circumferential sleeve (114; 214) configured to cover the first set of openings (116; 216) in a first position and to cover the second set of openings (118; 218) in a second position, characterised in that the gas turbine engine further comprises: an actuator coupled to the circumferential sleeve (114; 214), the actuator being configured to actuate the circumferential sleeve (114; 214) between the first and second positions, wherein the circumferential sleeve (114; 214) further comprises at least one slot , the body structure (112; 212) includes a post protruding radially outward into the slot , and the slot is angled relative to an actuation arm of the actuator . a compressor section (24; 100) including a plurality of stages; a combustor section fluidly connected to the compressor section ; a turbine section fluidly connected to the combustor section ; and a bleed structure (110; 200) radially outward of the plurality of stages, the bleed structure (110; 200) including a body structure (112; 212) having a first set of openings (116; 216) radially outward of a first stage, a second set of openings (118; 218) radially outward of a second stage, and a circumferential sleeve (114; 214) configured to cover the first set of openings (116; 216) in a first position and to cover the second set of openings (118; 218) in a second position, characterised in that the gas turbine engine further comprises: an actuator coupled to the circumferential sleeve (114; 214), the actuator being configured to actuate the circumferential sleeve (114; 214) between the first and second positions, wherein the circumferential sleeve (114; 214) further comprises at least one slot , the body structure (112; 212) includes a post protruding radially outward into the slot , and the slot is angled relative to an actuation arm of the actuator .
Method for producing a sliding surface element on the basis of UHMWPE for a joint endoprosthesis, comprising the steps: - mixing UHMWPE in powder form with 0.09 to 0.11% by weight of an antioxidant; - compacting the UHMWPE mixed with the antioxidant into a molded body; - manufacturing one or more sliding surface elements from the molded body by material-removing machining; and - irradiating the sliding surface element by gamma radiation or X-ray radiation with a radiation dose of 25 to 45 kGy in order to crosslink the UHMWPE, wherein the method comprises no thermal post-treatment of the irradiated sliding surface element. - mixing UHMWPE in powder form with 0.09 to 0.11% by weight of an antioxidant; - compacting the UHMWPE mixed with the antioxidant into a molded body; - manufacturing one or more sliding surface elements from the molded body by material-removing machining; and - irradiating the sliding surface element by gamma radiation or X-ray radiation with a radiation dose of 25 to 45 kGy in order to crosslink the UHMWPE,
A thermoplastic polyurethane obtainable or obtained by reacting at least components (i) to (iii): (i) at least one polyisocyanate composition, (ii) at least one chain extender, and (iii) at least one polyol composition, wherein the polyol composition comprises a polyol (P1) which has a molecular weight Mw in the range from 1500 to 2500 g/mol and has at least one aromatic polyester block (B1). (i) at least one polyisocyanate composition, (ii) at least one chain extender, and (iii) at least one polyol composition,
Control system for aligning a nacelle of a wind turbine with a target yaw angle , the control system comprising a detection device configured for detecting at least one parameter indicative of wind forces acting on at least one component of the wind turbine for determining a current yaw angle of the nacelle , and an actuation device configured for manipulating a position of the nacelle until the current yaw angle is aligned with the target yaw angle , wherein the detection device further comprises at least one first bending moment sensor on a first component of the wind turbine , and at least one second bending moment sensor on a second component of the wind turbine , wherein the detection device is further configured for determining a bending moment of the first component of the wind turbine based on data received from the first bending moment sensor as the at least one parameter indicative of wind forces acting on the at least one component of the wind turbine , and a bending moment of the second component of the wind turbine based on data measured by the second bending moment sensor , and characterized in that the detection device is further configured for cross-checking the bending moment of the first component of the wind turbine with the bending moment of the second component of the wind turbine . a detection device configured for detecting at least one parameter indicative of wind forces acting on at least one component of the wind turbine for determining a current yaw angle of the nacelle , and an actuation device configured for manipulating a position of the nacelle until the current yaw angle is aligned with the target yaw angle , wherein the detection device further comprises at least one first bending moment sensor on a first component of the wind turbine , and at least one second bending moment sensor on a second component of the wind turbine , wherein the detection device is further configured for determining a bending moment of the first component of the wind turbine based on data received from the first bending moment sensor as the at least one parameter indicative of wind forces acting on the at least one component of the wind turbine , and a bending moment of the second component of the wind turbine based on data measured by the second bending moment sensor , and characterized in that the detection device is further configured for cross-checking the bending moment of the first component of the wind turbine with the bending moment of the second component of the wind turbine .
Low-substituted hydroxypropyl cellulose having a hydroxypropoxyl content of from 5 to 16% by weight and a water-soluble content of less than 1.8% by weight, wherein a weight ratio of water to the low-substituted hydroxypropyl cellulose giving a maximum torque is from 3 to 5 as determined while adding one part by weight of water per minute to one part by weight of the low-substituted hydroxypropyl cellulose under mixing with biaxial mixing blades, the low-substituted hydroxypropyl cellulose being produced by a method comprising the steps of: pulverizing starting low-substituted hydroxypropyl cellulose having a hydroxypropoxyl content of from 5 to 16% by weight into low-substituted hydroxypropyl cellulose powder having a volume-average particle size of from 30 to 100 μm as measured by a dry laser diffraction method; and classifying the low-substituted hydroxypropyl cellulose powder to remove therefrom small particles having a volume-average particle size of less than 30 μm as measured by the dry laser diffraction method, wherein the weight ratio of water to low-substituted hydroxypropyl cellulosed giving a maximum torque, which may also be referred to as "maximum-torque-generating ratio", is determined by measuring, by means of an absorption tester "S-500" (product of ASAHISOUKEN), a change in torque when water is added to 5.0 g of low-substituted hydroxypropyl cellulose at a dropping rate of 5.0 g/min while mixing with biaxial mixing blade, and dividing the amount of water at the maximum torque by the weight 5.0 g of the low-substituted hydroxypropyl cellulose. The mixing blade on one axis of the two axes has a rotational speed of 60 rpm with a peripheral velocity of about 0.72 m/min and the mixing blade on the other axis has a rotational speed of 30 rpm with a peripheral velocity of about 0.36 m/min. Since low-substituted hydroxypropyl cellulose is hygroscopic, it is dried prior to the measurement by allowing it to stand at 105°C for 2 hours. pulverizing starting low-substituted hydroxypropyl cellulose having a hydroxypropoxyl content of from 5 to 16% by weight into low-substituted hydroxypropyl cellulose powder having a volume-average particle size of from 30 to 100 μm as measured by a dry laser diffraction method; and classifying the low-substituted hydroxypropyl cellulose powder to remove therefrom small particles having a volume-average particle size of less than 30 μm as measured by the dry laser diffraction method,
A method of auto-installing an integrated receiver/decoder (IRD, 10, 12) comprising the steps of: a) issuing first digitally coded command ODU_Allocate from the IRD to an outdoor unit (ODU, 2) requesting dynamic or static user band (UB) allocation; wherein in dynamic user band allocation the ODU assigns the UB number to the IRD and wherein in static user band allocation the IRD asks ODU for assigning to particular UB number, b) receiving reply from the ODU in response to the first command ODU_Allocate, if UB is available; said reply comprising a UB number, a center frequency of said UB , number of receivable satellite positions and information if ODU contains local oscillator (LO) or not; storing in the IRD the UB number, the center frequency of said UB , number of receivable satellite positions and information if ODU contains local oscillator (LO) or not; c) receiving reply from the ODU in response to the first command ODU_Allocate, if UB is not available; said reply comprising a failure message ODU_Error; d) returning a predefined number of times to step a) if no reply received in step b). a) issuing first digitally coded command ODU_Allocate from the IRD to an outdoor unit (ODU, 2) requesting dynamic or static user band (UB) allocation; wherein in dynamic user band allocation the ODU assigns the UB number to the IRD and wherein in static user band allocation the IRD asks ODU for assigning to particular UB number, b) receiving reply from the ODU in response to the first command ODU_Allocate, if UB is available; said reply comprising a UB number, a center frequency of said UB , number of receivable satellite positions and information if ODU contains local oscillator (LO) or not; storing in the IRD the UB number, the center frequency of said UB , number of receivable satellite positions and information if ODU contains local oscillator (LO) or not; c) receiving reply from the ODU in response to the first command ODU_Allocate, if UB is not available; said reply comprising a failure message ODU_Error; d) returning a predefined number of times to step a) if no reply received in step b).
An injection molding machine comprising: a platen to which a mold is attached; an ejector rod which is disposed in a through-hole of the platen to be movable forward or rearward and ejects a molding product from the mold; a bearing which is provided inside the through-hole of the platen , a crosshead which moves the ejector rod forward or rearward; and a coupling which connects the ejector rod and the crosshead to each other to absorb misalignment between the ejector rod and the crosshead , wherein the bearing is in contact with the ejector rod and guides the ejector rod in an axial direction of the ejector rod . a platen to which a mold is attached; an ejector rod which is disposed in a through-hole of the platen to be movable forward or rearward and ejects a molding product from the mold; a bearing which is provided inside the through-hole of the platen , a crosshead which moves the ejector rod forward or rearward; and a coupling which connects the ejector rod and the crosshead to each other to absorb misalignment between the ejector rod and the crosshead , wherein the bearing is in contact with the ejector rod and guides the ejector rod in an axial direction of the ejector rod .
Method for keeping an exhaust gas aftertreatment system within its working temperature range during idle or motoring engine operation modes of an internal combustion engine, wherein the internal combustion engine is connected to the exhaust gas aftertreatment system and comprises a gas intake side and an exhaust gas outlet side , wherein the exhaust gas outlet side of the internal combustion engine is connected with the exhaust gas aftertreatment system via an exhaust gas duct and with the gas intake side via a connecting duct , the connecting duct providing a gas recirculation of the exhaust gas to the gas intake side of the internal combustion engine , and at least one valve (22; 24) controlling the recirculation of the exhaust gas, characterized in that the method comprises the steps of: - sensing the temperature of the gas at the gas intake side of the internal combustion engine ; - determining whether or not the sensed temperature value is in a predetermined temperature interval; - determining whether the internal combustion engine is in an idle or motoring engine operation mode; - in case the internal combustion engine is determined to be in an idle or motoring engine operation mode, controlling the temperature of the gas at the gas intake side of the internal combustion engine to be within the predetermined temperature range by recirculating exhaust gas through the connecting duct by controlling the at least one valve (22; 24). - sensing the temperature of the gas at the gas intake side of the internal combustion engine ; - determining whether or not the sensed temperature value is in a predetermined temperature interval; - determining whether the internal combustion engine is in an idle or motoring engine operation mode; - in case the internal combustion engine is determined to be in an idle or motoring engine operation mode, controlling the temperature of the gas at the gas intake side of the internal combustion engine to be within the predetermined temperature range by recirculating exhaust gas through the connecting duct by controlling the at least one valve (22; 24).
Computer-executable instructions of an on-board manager that upon execution of the computer-executable instructions by one or more processors , cause the one or more processors to perform acts comprising: receiving, from an enterprise entity that maintains a secure routing identifier, SMSR-ID, corresponding to a unique subscription manager , and corresponding to a unique subscription manager secure routing, SM-SR, , a request comprising the SMSR-ID, the request being for an embedded universal integrated circuit card, eUICC, identifier, EID ; retrieving the SM-SR corresponding to the received SMSR-ID; retrieving from a data store, the data store storing a plurality of EIDs, the requested EID, the retrieved EID associated with the unique subscription manager corresponding to the SM-SR; if the unique subscription manager is removed, requesting the requesting enterprise entity to delete the SMSR-ID of the unique subscription manager; and/or if the unique subscription manager is disabled, requesting the requesting enterprise entity to disable the SMSR-ID of the unique subscription manager; if the unique subscription manager is not removed and/or disabled, responsive to the request, serving the retrieved EID to the unique subscription manager; and if the unique subscription manager is removed and/or disabled, responsive to the request, serving the retrieved EID to a replacement subscription manager. receiving, from an enterprise entity that maintains a secure routing identifier, SMSR-ID, corresponding to a unique subscription manager , and corresponding to a unique subscription manager secure routing, SM-SR, , a request comprising the SMSR-ID, the request being for an embedded universal integrated circuit card, eUICC, identifier, EID ; retrieving the SM-SR corresponding to the received SMSR-ID; retrieving from a data store, the data store storing a plurality of EIDs, the requested EID, the retrieved EID associated with the unique subscription manager corresponding to the SM-SR; if the unique subscription manager is removed, requesting the requesting enterprise entity to delete the SMSR-ID of the unique subscription manager; and/or if the unique subscription manager is disabled, requesting the requesting enterprise entity to disable the SMSR-ID of the unique subscription manager; if the unique subscription manager is not removed and/or disabled, responsive to the request, serving the retrieved EID to the unique subscription manager; and if the unique subscription manager is removed and/or disabled, responsive to the request, serving the retrieved EID to a replacement subscription manager.
One or more computer-readable storage media having program instructions stored thereon to facilitate simulating machines used in industrial automation, wherein the program instructions, when executed by a computing system , direct the computing system to: utilize an emulation simulation interface including a configurator module , a tag server and a synchronizer to establish at least a communication link between a simulation model created in a simulation application and an industrial controller system outside of the simulation model, wherein the simulation model comprises definitions for a virtual representation of at least a portion of a machine used in an industrial automation environment, wherein kinematics and dynamical information of the simulation model is used to generate realistic model conditions and wherein the configurator module hosts application-level information for connecting the industrial controller system with the simulation model , the tag server coordinates input and output tags for data exchange between the industrial controller system and the simulation model and the synchronizer coordinates the clock progression between the industrial controller system and the simulation model ; and exchange data between the industrial controller system and the simulation model over the communication link; and utilize the exchanged data to generate an animated visualization of the machine permitting to observe in real-time the effect of the industrial controller system on the machine being simulated and controlled by motion instructions. utilize an emulation simulation interface including a configurator module , a tag server and a synchronizer to establish at least a communication link between a simulation model created in a simulation application and an industrial controller system outside of the simulation model, wherein the simulation model comprises definitions for a virtual representation of at least a portion of a machine used in an industrial automation environment, wherein kinematics and dynamical information of the simulation model is used to generate realistic model conditions and wherein the configurator module hosts application-level information for connecting the industrial controller system with the simulation model , the tag server coordinates input and output tags for data exchange between the industrial controller system and the simulation model and the synchronizer coordinates the clock progression between the industrial controller system and the simulation model ; and exchange data between the industrial controller system and the simulation model over the communication link; and utilize the exchanged data to generate an animated visualization of the machine permitting to observe in real-time the effect of the industrial controller system on the machine being simulated and controlled by motion instructions.
A method of reducing one or more error types in cardiac system data obtained from a subject using a plurality of electrodes, the method comprising: defining an error reducing vector m̂ by normalizing a differential electric field vector using a magnitude, wherein the differential electric field vector is a difference of a first electric field vector E ( t j ) and a second electric field vector E ( t i ), wherein t i and t j are electric field measurements in time, wherein t j > t i and wherein the magnitude is | E ( t j ) - E ( t i )|; determining a cardiac system parameter by performing a vector operation comprising operating, using a dot product operator, upon (i) m̂ or a vector perpendicular thereto m̂ ⊥ and (ii) a diagnostic vector, wherein the diagnostic vector is generated using measured cardiac electrogram signals to generate an output, wherein the output is a scalar output or a vector output; and displaying the output or information correlated with the output. defining an error reducing vector m̂ by normalizing a differential electric field vector using a magnitude, wherein the differential electric field vector is a difference of a first electric field vector E ( t j ) and a second electric field vector E ( t i ), wherein t i and t j are electric field measurements in time, wherein t j > t i and wherein the magnitude is | E ( t j ) - E ( t i )|; determining a cardiac system parameter by performing a vector operation comprising operating, using a dot product operator, upon (i) m̂ or a vector perpendicular thereto m̂ ⊥ and (ii) a diagnostic vector, wherein the diagnostic vector is generated using measured cardiac electrogram signals to generate an output, wherein the output is a scalar output or a vector output; and displaying the output or information correlated with the output. (i) m̂ or a vector perpendicular thereto m̂ ⊥ and (ii) a diagnostic vector, wherein the diagnostic vector is generated using measured cardiac electrogram signals