mhurhangee/patent-ind-claim-en huggingface dataset:
Valve for a steam turbine, having a housing arrangement with an inlet and with a first outlet , a first valve element , and a first compensation element , wherein the first valve element is arranged in the housing arrangement between the inlet and the first outlet in such a way that a fluid flow between the inlet and the first outlet is able to be controlled by the first valve element , wherein a first volume is defined between the inlet and the first valve element , wherein the first valve element separates the first volume from a second volume at the first outlet , wherein the first compensation element is arranged in the housing arrangement in such a way that the first volume is sealed off with respect to the second volume by means of at least one seal between the housing arrangement and the first compensation element , wherein the first compensation element and the first valve element are connected rigidly to one another via a valve shank , wherein the first compensation element and the first valve element are movably arranged in such a way that, during a movement of the first element and the first compensation element , the first volume and the second volume remain sealed off with respect to one another over the first compensation element , wherein the housing arrangement has a first inner housing and an outer housing , wherein the first inner housing is able to be arranged in the housing arrangement in such a way that the first inner housing separates the first volume and the second volume from one another, wherein the first inner housing has a first opening , wherein the first valve element is able to be arranged in the first opening , wherein the housing arrangement has a second opening , in which the first compensation element is arranged, wherein the first inner housing also has the second opening , characterized in that the housing arrangement also has a second inner housing , wherein the second inner housing is able to be arranged in the housing arrangement in such a way that the second inner housing separates the first volume and a fourth volume at a second outlet , wherein the valve also has a second valve element , and a second compensation element , wherein the second inner housing has a third opening and a fourth opening , wherein the second valve element is able to be arranged in the third opening , wherein the second compensation element is able to be arranged in the fourth opening , wherein the second compensation element and the second valve element are connected rigidly to one another via a further valve shank , and wherein the valve shank and the further valve shank are coupled so as to be movable relative to one another.
A strain belonging to Aspergillus oryzae or Aspergillus sojae which has a duplication of a genome region of 900 kb or more corresponding to the region AO090003001003-AO090003001259 of SC003 on the second chromosome in Aspergillus oryzae RIB40 deposited as NRBC100959.
A control device , comprising: a cyclic communication part configured to perform communication according to a preset cyclic period; a message communication part configured to perform communication that need not conform to the cyclic period; and a communication management part configured to manage a communication schedule for the cyclic communication part and the message communication part , wherein, when it is detected that control data scheduled to be communicated is data for preferentially selecting communication in the cyclic communication part , the communication management part detects a communication state of the cyclic communication part , and stores the control data in the cyclic communication part when cyclic communication according to the cyclic period is possible depending on the communication state, and stores the control data in the message communication part when the cyclic communication according to the cyclic period is not possible depending on the communication state, characterized in that the control data comprises first control data in which an arrival guarantee time is set according to the cyclic period and second control data in which an arrival guarantee time longer than the cyclic period is set, wherein the arrival guarantee time is a longest time within which the control data should arrive in order for a target slave device to operate normally, and wherein the control data for selecting the storing is the second control data. a cyclic communication part configured to perform communication according to a preset cyclic period; a message communication part configured to perform communication that need not conform to the cyclic period; and a communication management part configured to manage a communication schedule for the cyclic communication part and the message communication part , wherein, when it is detected that control data scheduled to be communicated is data for preferentially selecting communication in the cyclic communication part , the communication management part detects a communication state of the cyclic communication part , and stores the control data in the cyclic communication part when cyclic communication according to the cyclic period is possible depending on the communication state, and stores the control data in the message communication part when the cyclic communication according to the cyclic period is not possible depending on the communication state, characterized in that the control data comprises first control data in which an arrival guarantee time is set according to the cyclic period and second control data in which an arrival guarantee time longer than the cyclic period is set, wherein the arrival guarantee time is a longest time within which the control data should arrive in order for a target slave device to operate normally, and wherein the control data for selecting the storing is the second control data.
Folding box consisting of a cover and of a, preferably cuboidal, inner body , wherein a) the foldable cover consists of four pivotably connected folding elements arranged in a row, specifically a base element , a side element , a lid element and a further side element , b) and the foldable inner body , which is able to be brought from a collapsed flat form into a folded-up form, consists at least of four side walls , c) wherein the inner body is fastened to the base element of the cover , and, in the closed position of the cover , the side elements thereof extend adjacently to side walls of the inner body and the lid element closes an open side of the inner body , d) and wherein an insertion tab arranged on the free side of the terminal further side element is insertable into an insertion slot between the base element and the inner body for fixing the cover in the closed position. a) the foldable cover consists of four pivotably connected folding elements arranged in a row, specifically a base element , a side element , a lid element and a further side element , b) and the foldable inner body , which is able to be brought from a collapsed flat form into a folded-up form, consists at least of four side walls , c) wherein the inner body is fastened to the base element of the cover , and, in the closed position of the cover , the side elements thereof extend adjacently to side walls of the inner body and the lid element closes an open side of the inner body , d) and wherein an insertion tab arranged on the free side of the terminal further side element is insertable into an insertion slot between the base element and the inner body for fixing the cover in the closed position.
A method of synchronization performed by a destination station, the method comprising: transmitting a first request frame, including timing information for a response frame, to a relay station; transmitting a second request frame, including the timing information for a response frame, to a source station after a predetermined time interval at completion of transmitting the first request frame; receiving a first response frame from the relay station in response to the first request frame after (i) the timing information for the response frame and (ii) a propagation delay from the destination station to the relay station, at completion of transmitting the first request frame; receiving a second response frame from the source station in response to the second request frame after (i) the timing information for the response frame and (ii) a propagation delay from the destination station to the source station, at completion of transmitting the second request frame; estimating a first time variance of twice the propagation delay between the destination station and the relay station based on times in which the first response frame is received; and estimating a second time variance of twice the propagation delay between the destination station and the source station based on times in which the second response frame is received, transmitting information on a delay time difference associated with the relay station and the source station to at least one of the relay station and the source station. transmitting a first request frame, including timing information for a response frame, to a relay station; transmitting a second request frame, including the timing information for a response frame, to a source station after a predetermined time interval at completion of transmitting the first request frame; receiving a first response frame from the relay station in response to the first request frame after (i) the timing information for the response frame and (ii) a propagation delay from the destination station to the relay station, at completion of transmitting the first request frame; receiving a second response frame from the source station in response to the second request frame after (i) the timing information for the response frame and (ii) a propagation delay from the destination station to the source station, at completion of transmitting the second request frame; estimating a first time variance of twice the propagation delay between the destination station and the relay station based on times in which the first response frame is received; and estimating a second time variance of twice the propagation delay between the destination station and the source station based on times in which the second response frame is received, transmitting information on a delay time difference associated with the relay station and the source station to at least one of the relay station and the source station.
Hob device, in particular induction hob device, comprising at least one plate unit , which plate unit has at least one plate main body , which has an at least substantially smooth surface in at least one surface portion on at least one plate side , and which has at least one first layer unit which is arranged in at least one first sub-region of the surface portion and is at least substantially non-transparent, and with at least one light source which is intended for providing light in an operating mode, wherein the plate unit has at least one second layer unit which is arranged in at least one second sub-region of the surface portion and is provided for scattering light, wherein the second layer unit , when viewed perpendicular to a main extension plane of the plate unit , is arranged completely within a surface extension which a heating region spans and at least participates in at least one identification of at least the heating region , characterised in that the plate unit has at least one third layer unit which is provided to filter at least partially light provided by the light source in the operating mode, in order to permit optimal lighting in particular, and which is arranged in at least one third sub-region of the surface portion , wherein the third layer unit has a filter function, by means of which the third layer unit filters light emitted by the light source by way of scattering and/or absorbing and/or transmitting the light, wherein the third layer unit , when viewed perpendicular to a main extension plane of the plate unit , is arranged completely within a surface extension which an operating region spans and at least participates in at least one identification of at least the operating region , at least together with the light source , wherein the third layer unit is provided, in the operating mode of the light source , to permit at least partially an escape of light from the light source from a hob interior and, in an inactivity mode of the light source , to prevent an escape of light from the hob interior by means of the filter function at least to a large extent.
A system, comprising: a medical instrument configured to be positioned at a first location within a patient anatomy; at least one sensor coupled to the medical instrument , the at least one sensor being configured to determine a first biomarker measurement and a second biomarker measurement; a manipulator assembly configured to control movement of the medical instrument; and a processor configured to: compare the first biomarker measurement with the second biomarker measurement to determine a proximity to a target within the patient anatomy; and based on the comparing the first biomarker measurement with the second biomarker measurement, move the medical instrument towards the target with the manipulator assembly. a medical instrument configured to be positioned at a first location within a patient anatomy; at least one sensor coupled to the medical instrument , the at least one sensor being configured to determine a first biomarker measurement and a second biomarker measurement; a manipulator assembly configured to control movement of the medical instrument; and a processor configured to: compare the first biomarker measurement with the second biomarker measurement to determine a proximity to a target within the patient anatomy; and based on the comparing the first biomarker measurement with the second biomarker measurement, move the medical instrument towards the target with the manipulator assembly. compare the first biomarker measurement with the second biomarker measurement to determine a proximity to a target within the patient anatomy; and based on the comparing the first biomarker measurement with the second biomarker measurement, move the medical instrument towards the target with the manipulator assembly.
A method performed by an encoder of a base station system of a wireless communication network, for handling a data stream for transmission over a transmission connection between a remote unit and a base unit of the base station system, the remote unit being arranged to transmit wireless signals to, and receive from, mobile stations , the data stream comprising a plurality of IQ samples comprising a first IQ sample and a second IQ sample, the method comprising: quantizing the plurality of IQ samples by a first quantizer; converting , by an encoder predictor, the quantized plurality of IQ samples to predictions of the plurality of IQ samples, the predictions comprising a prediction of the first IQ sample and a prediction of the second IQ sample; calculating on a per IQ sample level, a difference between the quantized plurality of IQ samples and the predictions of the plurality of IQ samples, so that a difference between the quantized first IQ sample and the prediction of the first IQ sample, as well as a difference between the quantized second IQ sample and the prediction of the second IQ sample are calculated, in order to create a plurality of IQ prediction errors; quantizing the predictions of the plurality of IQ samples before the calculating , or quantizing the plurality of IQ prediction errors after the calculating, by a second quantizer; encoding , after the quantizing by the second quantizer, the plurality of IQ prediction errors with fewer bits than a number of bits of the plurality of IQ prediction errors, and sending the encoded plurality of IQ prediction errors over the transmission connection to a decoder of the base station system. quantizing the plurality of IQ samples by a first quantizer; converting , by an encoder predictor, the quantized plurality of IQ samples to predictions of the plurality of IQ samples, the predictions comprising a prediction of the first IQ sample and a prediction of the second IQ sample; calculating on a per IQ sample level, a difference between the quantized plurality of IQ samples and the predictions of the plurality of IQ samples, so that a difference between the quantized first IQ sample and the prediction of the first IQ sample, as well as a difference between the quantized second IQ sample and the prediction of the second IQ sample are calculated, in order to create a plurality of IQ prediction errors; quantizing the predictions of the plurality of IQ samples before the calculating , or quantizing the plurality of IQ prediction errors after the calculating, by a second quantizer; encoding , after the quantizing by the second quantizer, the plurality of IQ prediction errors with fewer bits than a number of bits of the plurality of IQ prediction errors, and sending the encoded plurality of IQ prediction errors over the transmission connection to a decoder of the base station system.
Analyte measuring patch for invasive measuring a concentration of an analyte, in particular glucose, the analyte measuring patch including: • a sensor for transcutaneous placement in a patient's tissue, the sensor including a working electrode , a counter electrode and a reference electrode ; • an pad for placement on the patient's skin, wherein the sensor projects from an adhesive surface of the pad ; • an electronics unit , wherein the electronics unit includes a microcontroller and a current measurement unit; wherein the microcontroller includes a control output (DAC), a first analogue input (ADC-2) and a second analogue input (ADC-1); wherein the control output (DAC) is operatively coupled with a control electrode, the control electrode being either of the working electrode or or the counter electrode ; wherein the first analogue input (ADC-2) is operatively coupled with a measurement electrode via the current measurement unit, the measurement electrode being either of the working electrode or the counter electrode ; wherein the second analogue input (ADC-1) is operatively coupled with the reference electrode ; characterized in that the microcontroller is programmed to implement a digital closed loop controller and is configured to control, by providing a control voltage to the control output (DAC), a potential difference between the working electrode and the reference electrode to equal a pre-defined polarization voltage. • a sensor for transcutaneous placement in a patient's tissue, the sensor including a working electrode , a counter electrode and a reference electrode ; • an pad for placement on the patient's skin, wherein the sensor projects from an adhesive surface of the pad ; • an electronics unit , wherein the electronics unit includes a microcontroller and a current measurement unit;
A method of determining an unsafe condition of a welding power source having a welding output connector and a battery output connector , the method comprising: determining, via a controller of the welding power source, a selected mode within the welding power source as being a welding mode or a battery mode; determining, via the controller of the welding power source, when at least one electric current is flowing through at least one cable connected to at least one of a welding output connector of the welding power source or a battery output connector of the welding power source by ; detecting that the at least one electric current is flowing through the at least one cable connected to at least one of the welding output connector of the welding power source or the battery output connector of the welding power source via at least one of a precision resistor shunt, a hall-effect sensor, or a reed switch determining, via the controller of the welding power source, that a first unsafe condition of the welding power source exists when the selected mode is determined to be the welding mode and when the at least one electric current is determined to be flowing through the at least one cable connected to the battery output connector; shutting down, via the controller of the welding power source, a power electronics of the welding power source in response to determining that the first unsafe condition of the welding power source exists, wherein the power electronics is configured to provide welding power at the welding output connector during the welding mode. determining, via a controller of the welding power source, a selected mode within the welding power source as being a welding mode or a battery mode; determining, via the controller of the welding power source, when at least one electric current is flowing through at least one cable connected to at least one of a welding output connector of the welding power source or a battery output connector of the welding power source by ; detecting that the at least one electric current is flowing through the at least one cable connected to at least one of the welding output connector of the welding power source or the battery output connector of the welding power source via at least one of a precision resistor shunt, a hall-effect sensor, or a reed switch determining, via the controller of the welding power source, that a first unsafe condition of the welding power source exists when the selected mode is determined to be the welding mode and when the at least one electric current is determined to be flowing through the at least one cable connected to the battery output connector; shutting down, via the controller of the welding power source, a power electronics of the welding power source in response to determining that the first unsafe condition of the welding power source exists, wherein the power electronics is configured to provide welding power at the welding output connector during the welding mode.