mhurhangee/ep-ind-claims huggingface dataset:
A method for automating process development in a bioprocessing environment, the method comprising method steps: executing a first experiment run according to a set of parameters; retrieving a first real-time set of data of the experiment run while the experiment run is being executed; retrieving a second real-time set of data of an experiment run being executed in parallel, analysing the retrieved first real-time set of data and the second real-time set of data to determine an adjusted set of parameters; and, modifying, based on the analysis, parameters upon which the experiment run is being executed during execution of the run, wherein individual experiments being re-tasked to explore new parameter ranges such that the run continues to be executed according to the modified set of parameters. executing a first experiment run according to a set of parameters; retrieving a first real-time set of data of the experiment run while the experiment run is being executed; retrieving a second real-time set of data of an experiment run being executed in parallel, analysing the retrieved first real-time set of data and the second real-time set of data to determine an adjusted set of parameters; and, modifying, based on the analysis, parameters upon which the experiment run is being executed during execution of the run, wherein individual experiments being re-tasked to explore new parameter ranges such that the run continues to be executed according to the modified set of parameters.
A fan blade for a turbofan gas turbine engine, the fan blade comprising: a body having a pressure side, a suction side adjoining the pressure side along a leading edge and a trailing edge, the body having a base and a distal tip; the suction side of the body further including one or more cavities; the suction side defining an opening communicating with the one or more cavities, the opening having a perimeter; the body further defining a slot, the slot extending underneath all or part of the perimeter away from the opening into the body; a semi-flexible cover comprising fiber or resin and having a peripheral edge that may be received into the slot to help secure the cover to the body, thereby covering part or all of the one or more cavities, the cover having an inner surface configured to face the opening; and a filler material disposed within at least one of the one or more cavities, the body further including a lip extending inwardly toward the opening and terminating at the perimeter of the opening, the fan blade being characterised in that the body includes an inner wall that, with the lip, defines the slot, the inner wall having an upper surface upon which the cover is located when the cover is located in the opening and a peripheral edge of the cover is received in the slot. a body having a pressure side, a suction side adjoining the pressure side along a leading edge and a trailing edge, the body having a base and a distal tip; the suction side of the body further including one or more cavities; the suction side defining an opening communicating with the one or more cavities, the opening having a perimeter; the body further defining a slot, the slot extending underneath all or part of the perimeter away from the opening into the body; a semi-flexible cover comprising fiber or resin and having a peripheral edge that may be received into the slot to help secure the cover to the body, thereby covering part or all of the one or more cavities, the cover having an inner surface configured to face the opening; and a filler material disposed within at least one of the one or more cavities, the body further including a lip extending inwardly toward the opening and terminating at the perimeter of the opening, the fan blade being characterised in that the body includes an inner wall that, with the lip, defines the slot, the inner wall having an upper surface upon which the cover is located when the cover is located in the opening and a peripheral edge of the cover is received in the slot.
A method for switching between steady-state and non-steady-state operation of a process for the production of a polymer by polymerisation of a monomer in the gas phase in the presence of a comonomer and/or hydrogen which process comprises: a1. At non-steady-state controlling the process based on the ratio of comonomer in the gas phase in the reactor to monomer in the gas phase in the reactor, and b1. At steady-state controlling the process based on the flow ratio of comonomer to monomer to the reactor, and/or a2. At non-steady-state controlling the process based on the ratio of hydrogen in the gas phase in the reactor to monomer in the gas phase in the reactor, and b2. At steady-state controlling the process based on the flow ratio of hydrogen to monomer to the reactor, wherein the term "non-steady state" refers to operation during which the production rate of polymer changes or the operation during which the polymer properties of the polymer being produced change, and the term "steady-state" refers to operation which aims to maintain an hourly production of polymer and properties of the polymer being made that vary by less than +/-10% from an average over a period of time of 1 day, and further wherein the respective controlling methods are each applied for at least 50% of the time during which the process is in the respective steady-state or non-steady state operation. a1. At non-steady-state controlling the process based on the ratio of comonomer in the gas phase in the reactor to monomer in the gas phase in the reactor, and b1. At steady-state controlling the process based on the flow ratio of comonomer to monomer to the reactor, and/or a2. At non-steady-state controlling the process based on the ratio of hydrogen in the gas phase in the reactor to monomer in the gas phase in the reactor, and b2. At steady-state controlling the process based on the flow ratio of hydrogen to monomer to the reactor, the term "non-steady state" refers to operation during which the production rate of polymer changes or the operation during which the polymer properties of the polymer being produced change, and the term "steady-state" refers to operation which aims to maintain an hourly production of polymer and properties of the polymer being made that vary by less than +/-10% from an average over a period of time of 1 day, and further wherein the respective controlling methods are each applied for at least 50% of the time during which the process is in the respective steady-state or non-steady state operation.
A gas routing module (200, 202) for insertion within a respiratory treatment apparatus, the gas routing module (200, 202) adapted to couple within a gas ports interface of a discrete compartment of a chassis of a respiratory treatment apparatus, the gas routing module comprising: a plurality of gas routing channels adapted for gas communication with expired airflow; and a gas ports interface, the gas ports interface including a plurality of gas ports (230, 232, 234) in gas communication with the plurality of gas routing channels, wherein the gas ports interface of the gas routing module comprises two or more of (a) a port for expiratory pressure sensing, (b) a port for a PEEP air supply, and (c) a set of ports for expiratory flow sensing through one or more of the plurality of gas routing channels of the module, characterised in that the gas routing module has a first side including an expired gas inlet port (238, 244) adapted to be connected to a conduit of a patient circuit, and a gas outlet or control port (240, 246), and the gas routing module (200, 202) is configured such that, in use, the expired gas inlet port (238, 244) receives, at the first side, the expired airflow from the conduit of the patient circuit, and the gas outlet or control port (240, 246) routes, at the first side, from the respiratory treatment apparatus, one of (a) expired airflow from the conduit of the patient circuit, and (b) a PEEP pressure from a PEEP blower. a plurality of gas routing channels adapted for gas communication with expired airflow; and a gas ports interface, the gas ports interface including a plurality of gas ports (230, 232, 234) in gas communication with the plurality of gas routing channels, wherein the gas ports interface of the gas routing module comprises two or more of (a) a port for expiratory pressure sensing, (b) a port for a PEEP air supply, and (c) a set of ports for expiratory flow sensing through one or more of the plurality of gas routing channels of the module, characterised in that the gas routing module has a first side including an expired gas inlet port (238, 244) adapted to be connected to a conduit of a patient circuit, and a gas outlet or control port (240, 246), and the gas routing module (200, 202) is configured such that, in use, the expired gas inlet port (238, 244) receives, at the first side, the expired airflow from the conduit of the patient circuit, and the gas outlet or control port (240, 246) routes, at the first side, from the respiratory treatment apparatus, one of (a) expired airflow from the conduit of the patient circuit, and (b) a PEEP pressure from a PEEP blower.
A leadless cardiac device configured for deployment within a patient's vasculature at a location near the patient's heart, the leadless cardiac device comprising: an elongated housing configured to be positioned within the patient's vasculature proximate the patient's heart, the elongated housing having a proximal end and a distal end; a power source disposed within the elongated housing; circuitry disposed within the elongated housing and operatively coupled to the power source, the circuitry configured to pace the patient's heart and/or sense electrical activity of the patient's heart; a first electrode fixed relative to the elongated housing and operatively coupled to the circuitry; a second electrode fixed relative to the elongated housing and operatively coupled to the circuitry, the second electrode spaced from the first electrode and positioned along a side wall of the elongated housing; a distal extension extending distally from the distal end of the elongated housing, the distal extension including at least one electrode (34, 36, 38) positioned near a distal end thereof and operatively coupled to the circuitry; and an expandable anchoring mechanism releasably coupled to the elongated housing, the expandable anchoring mechanism having a collapsed configuration for delivery and an expanded configuration that locates the leadless cardiac device within the patient's vasculature. an elongated housing configured to be positioned within the patient's vasculature proximate the patient's heart, the elongated housing having a proximal end and a distal end; a power source disposed within the elongated housing; circuitry disposed within the elongated housing and operatively coupled to the power source, the circuitry configured to pace the patient's heart and/or sense electrical activity of the patient's heart; a first electrode fixed relative to the elongated housing and operatively coupled to the circuitry; a second electrode fixed relative to the elongated housing and operatively coupled to the circuitry, the second electrode spaced from the first electrode and positioned along a side wall of the elongated housing; a distal extension extending distally from the distal end of the elongated housing, the distal extension including at least one electrode (34, 36, 38) positioned near a distal end thereof and operatively coupled to the circuitry; and an expandable anchoring mechanism releasably coupled to the elongated housing, the expandable anchoring mechanism having a collapsed configuration for delivery and an expanded configuration that locates the leadless cardiac device within the patient's vasculature.
A sensor information processing apparatus comprising: a receiver configured to receive a detected signal of a heartbeat sensor and a detected signal of an inertial sensor; and a processor configured to control a target frequency band to be processed in the detected signal of the heartbeat sensor according to the detected signal of the inertial sensor, and calculate a heart rate based on a signal in the target frequency band of the detected signal of the heartbeat sensor, wherein the control includes: estimating the heart rate based on the detected signal of the inertial sensor; when the estimated heart rate is equal to or more than a threshold value, setting a center frequency of the target frequency band to a frequency corresponding to the estimated heart rate; and when the estimated heart rate is less than the threshold value, detecting the heart rate based on a result obtained by performing a frequency analysis on the detected signal of the heartbeat sensor, and setting the center frequency of the target frequency band to a frequency corresponding to the detected heart rate. a receiver configured to receive a detected signal of a heartbeat sensor and a detected signal of an inertial sensor; and a processor configured to control a target frequency band to be processed in the detected signal of the heartbeat sensor according to the detected signal of the inertial sensor, and calculate a heart rate based on a signal in the target frequency band of the detected signal of the heartbeat sensor, wherein the control includes: estimating the heart rate based on the detected signal of the inertial sensor; when the estimated heart rate is equal to or more than a threshold value, setting a center frequency of the target frequency band to a frequency corresponding to the estimated heart rate; and when the estimated heart rate is less than the threshold value, detecting the heart rate based on a result obtained by performing a frequency analysis on the detected signal of the heartbeat sensor, and setting the center frequency of the target frequency band to a frequency corresponding to the detected heart rate. estimating the heart rate based on the detected signal of the inertial sensor; when the estimated heart rate is equal to or more than a threshold value, setting a center frequency of the target frequency band to a frequency corresponding to the estimated heart rate; and when the estimated heart rate is less than the threshold value, detecting the heart rate based on a result obtained by performing a frequency analysis on the detected signal of the heartbeat sensor, and setting the center frequency of the target frequency band to a frequency corresponding to the detected heart rate.
A crop pick-up header configured to be operationally coupled to an agricultural implement, the header comprising a frame, a rotatable reel and an auger that is rotatable about a central rotation axis and that is configured to receive crops which have been picked up by the reel, the auger comprising flights for moving the received crops towards a central area of the header, wherein the auger is mounted between two arms which are pivotable relative to the frame, about a common axis that is essentially parallel to the central rotation axis of the auger so that the auger's height position with respect to a floor portion of the header frame is variable as a function of the auger's rotational speed and of the throughput of crops that are being transferred from the reel to the auger, characterised in that: - the crop pick-up header comprises at least one sensor configured to determine the height position of the auger relative to the floor portion, or a parameter representative thereof, - the crop pick-up header comprises a speed drive that is capable of driving the rotational speed of the auger independently from other rotating components of the header or of the agricultural implement, - the crop pick-up header comprises or is connectable to a control unit configured to control the rotational speed of the auger as a function of the auger's height position as determined through the sensor, in such a manner that the speed is reduced when it is determined by the sensor that the height position of the auger drops below a predefined value. - the crop pick-up header comprises at least one sensor configured to determine the height position of the auger relative to the floor portion, or a parameter representative thereof, - the crop pick-up header comprises a speed drive that is capable of driving the rotational speed of the auger independently from other rotating components of the header or of the agricultural implement, - the crop pick-up header comprises or is connectable to a control unit configured to control the rotational speed of the auger as a function of the auger's height position as determined through the sensor, in such a manner that the speed is reduced when it is determined by the sensor that the height position of the auger drops below a predefined value.
An arrangement for producing a flow in a wastewater treatment tank, comprising a substantially horizontal bottom and a horizontal mixer (2, 3, 4), which is provided in the wastewater treatment tank and which has a propeller driven by means of a motor via a propeller shaft, characterized in that the wastewater treatment tank is a circulation basin formed by a circumferential channel and a circulating flow is produced by the horizontal mixer (2, 3, 4), wherein the axis of the propeller shaft is tilted relative to the bottom by an angle α of 3 to 5° in such a way that a flow directed from the propeller to the motor and toward a surface of the wastewater is produced by the horizontal mixer (2, 3, 4).
A reference signal sending method implemented by an access network device, characterized by comprising: determining a demodulation reference signal, DMRS, pattern corresponding to an antenna port based on a quantity of spatial layers of to-be-transmitted data and a status of a radio channel between the access network device and a terminal device; sending first indication information to the terminal device, wherein the first indication information comprises a first identifier and indicates the DMRS pattern corresponding to the antenna port, wherein the first identifier is a joint identifier of the antenna port and the DMRS pattern; and sending a DMRS to the terminal device through the antenna port on a resource corresponding to the DMRS pattern. determining a demodulation reference signal, DMRS, pattern corresponding to an antenna port based on a quantity of spatial layers of to-be-transmitted data and a status of a radio channel between the access network device and a terminal device; sending first indication information to the terminal device, wherein the first indication information comprises a first identifier and indicates the DMRS pattern corresponding to the antenna port, wherein the first identifier is a joint identifier of the antenna port and the DMRS pattern; and sending a DMRS to the terminal device through the antenna port on a resource corresponding to the DMRS pattern.
Method for the preparation of samples by means of a dosage-dispensing device that comprises a weighing system with a load receiver, a processor unit, a memory unit, an ionizer and an exchangeable dosage-dispensing unit (105, 105'), wherein a target container can be set on the load receiver, wherein the dosage-dispensing unit (105, 105') and/or the target container comprises electrically insulating material, and wherein the dosage-dispensing unit (105, 105') is arranged above the load receiver with the capability to slide or swivel between a first position and a second position relative to the load receiver, said method being characterized by the steps (311, 312, 313, 314, 315, 316, 317, 318) according to which • while the dosage-dispensing unit (105, 105') is at rest in the first position and a target container is in place on the load receiver, a starting weight value is determined by the weighing system and stored in the memory unit; • the dosage-dispensing unit (105, 105') is brought into the second position; • the ionizer is switched on, as the dosage-dispensing unit is moved from the first position into the second position; • a dosage-dispensing cycle is performed, wherein dosage material in a predetermined amount of mass is delivered from the dosage-dispensing unit (105, 105') into the target container by means of the processor unit; • the ionizer is switched on and off periodically during the dosage-dispensing cycle, wherein during the determination of intermediate values the ionizer is switched off; • the dosage-dispensing unit (105, 105') is brought into the first position; and • while the dosage-dispensing unit (105, 105') is at rest in the first position, an ending weight value is determined by the weighing system. • while the dosage-dispensing unit (105, 105') is at rest in the first position and a target container is in place on the load receiver, a starting weight value is determined by the weighing system and stored in the memory unit; • the dosage-dispensing unit (105, 105') is brought into the second position; • the ionizer is switched on, as the dosage-dispensing unit is moved from the first position into the second position; • a dosage-dispensing cycle is performed, wherein dosage material in a predetermined amount of mass is delivered from the dosage-dispensing unit (105, 105') into the target container by means of the processor unit; • the ionizer is switched on and off periodically during the dosage-dispensing cycle, wherein during the determination of intermediate values the ionizer is switched off; • the dosage-dispensing unit (105, 105') is brought into the first position; and • while the dosage-dispensing unit (105, 105') is at rest in the first position, an ending weight value is determined by the weighing system.
A gear unit having: - a drive element with a first tooth structure, - an output element with a second tooth structure, - wherein the tooth structures (11, 21) are able to be brought in engagement cogging with each other to form a gearing in at least one engagement area of the second tooth structure, and - wherein the output element has at least one uncoupling area, in which the cogging engagement of the gearing is uncoupled, wherein - the first tooth structure has at least one first modified tooth element and - the second tooth structure has at least one second modified tooth element, - wherein by a movement of the drive element, synchronization of the second modified tooth element with the first modified tooth element is possible, - in order to create a change from the uncoupled state to the engagement state, wherein the second tooth structure has at least one lengthened tooth element with an enlarged length, which is greater than the smaller length of the rest of the second tooth structure, and wherein the first modified tooth element of the first tooth structure has an enlarged length, that is greater than the smaller length of the rest of the first tooth structure, characterized in that a blocking element is provided, by which the output element is blocked in the uncoupled state, so that the gear unit is implemented to be self-checking, wherein the blocking element has an opening that is arranged in the blocking element at a place between the first modified tooth elements of the first tooth structure, so that upon synchronization of the second modified tooth element with a first modified tooth element the lengthened tooth element with the section of the enlarged length can fall into the opening. - a drive element with a first tooth structure, - an output element with a second tooth structure, - wherein the tooth structures (11, 21) are able to be brought in engagement cogging with each other to form a gearing in at least one engagement area of the second tooth structure, and - wherein the output element has at least one uncoupling area, in which the cogging engagement of the gearing is uncoupled, - the first tooth structure has at least one first modified tooth element and - the second tooth structure has at least one second modified tooth element, - wherein by a movement of the drive element, synchronization of the second modified - in order to create a change from the uncoupled state to the engagement state,