mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a polyester, which process comprises reacting a) a furandicarboxylic acid component (A), which comprises at least one dialkyl ester of a furandicarboxylic acid, b) a dicarboxylic acid component (B), which comprises at least one aliphatic dicarboxylic acid or the dialkyl ester or anhydride thereof, c) an alcohol component (C), which comprises at least 1,4-butanediol, and also d) a catalyst component (D), comprising at least one catalyst, wherein the components (A), (B), (C) and (D) are reacted simultaneously. a) a furandicarboxylic acid component (A), which comprises at least one dialkyl ester of a furandicarboxylic acid, b) a dicarboxylic acid component (B), which comprises at least one aliphatic dicarboxylic acid or the dialkyl ester or anhydride thereof, c) an alcohol component (C), which comprises at least 1,4-butanediol, and also d) a catalyst component (D), comprising at least one catalyst,
Processing device comprising at least one processing cluster , the processing cluster comprising: - a message management facility having a first message queue (Q1), and a second message queue (Q2), the message management facility to: - receive new instruction messages (MI) in the first message queue (Q1); - receive bounced instruction messages (BMI) in the second message queue (Q2); and - ; - a message processing facility having a plurality of processing device elements with at least two input ports, the message processing facility to: - receive the selected instruction messages (SMI) from the message management facility , the instruction messages comprise an indication of a processing device element, an identification of an input port of the processing device element and operand data for that input port and to reject the selected instruction messages (SMI) if the port of the processing device element identified therein is not yet available and to accept the selected instruction messages (SMI) otherwise; - return a rejected selected instruction messages (SMI) as a bounced instruction message to the message management facility ; - retrieve operand data from an accepted selected instruction message for an input port of a processing device element identified by the selected instruction message; - perform an operation designated to a processing device element once each of its input ports have received operand data, ; characterized in that the processing device comprises a queue controller Q-CNTRL to retrieve instruction messages (SMI) from a designated one of the first message queue (Q1) and the second message queue (Q2), therewith alternatingly designating the first message queue (Q1) and the second message queue (Q2) as the designated queue. - a message management facility having a first message queue (Q1), and a second message queue (Q2), the message management facility to: - receive new instruction messages (MI) in the first message queue (Q1); - receive bounced instruction messages (BMI) in the second message queue (Q2); and - ; - a message processing facility having a plurality of processing device elements with at least two input ports, the message processing facility to: - receive the selected instruction messages (SMI) from the message management facility , the instruction messages comprise an indication of a processing device element, an identification of an input port of the processing device element and operand data for that input port and to reject the selected instruction messages (SMI) if the port of the processing device element identified therein is not yet available and to accept the selected instruction messages (SMI) otherwise; - return a rejected selected instruction messages (SMI) as a bounced instruction message to the message management facility ; - retrieve operand data from an accepted selected instruction message for an input port of a processing device element identified by the selected instruction message; - perform an operation designated to a processing device element once each of its input ports have received operand data, ;
An electricity meter comprising a current-measurement circuit arranged to measure a phase current flowing in a phase conductor of a distribution network and a voltage-measurement circuit arranged to measure a phase voltage on the phase conductor, the current-measurement circuit comprising a current sensor producing a first analog measurement voltage (V1a) representative of the phase current and a first analog-to-digital converter arranged to take first samples of the first analog measurement voltage so as to produce first digital values, the voltage-measurement circuit comprising a voltage sensor producing a second analog measurement voltage (V2a) representative of the phase voltage and a second analog-to-digital converter arranged to take second samples of the second analog measurement voltage so as to produce second digital values, the electricity meter further comprising a first synchronization circuit arranged to synchronize in frequency the taking of the first samples and of the second samples, the electricity meter being characterized by : the first synchronization circuit comprising a digital bus , the first analog-to-digital converter being arranged to issue, on the digital bus, timing signals representative of a first frequency for taking the first samples, or the second analog-to-digital converter being arranged to issue, on the digital bus, timing signals representative of a second frequency for taking the second samples.
A method for operating a radar device that implements built-in self-test (BIST), the radar device having a transmitter and a receiver , the method comprising: generating a noise signal; mixing the noise signal with a transmitter output radio frequency, RF, signal to produce an intermediate signal, wherein the transmitter output RF signal is a version of a local oscillator, LO, signal having linearly increasing frequency; attenuating the intermediate signal to produce a test signal; adding the test signal to a receiver input RF signal to produce a combined receiver input RF signal; downmixing an amplified version of the combined receiver input RF signal with the LO signal to produce a combined low frequency signal; and correlating the combined low frequency signal with the noise signal to produce an error detection signal. generating a noise signal; mixing the noise signal with a transmitter output radio frequency, RF, signal to produce an intermediate signal, wherein the transmitter output RF signal is a version of a local oscillator, LO, signal having linearly increasing frequency; attenuating the intermediate signal to produce a test signal; adding the test signal to a receiver input RF signal to produce a combined receiver input RF signal; downmixing an amplified version of the combined receiver input RF signal with the LO signal to produce a combined low frequency signal; and correlating the combined low frequency signal with the noise signal to produce an error detection signal.
A ringing gel composition having a viscosity comprised between 0.1 and 1000 Pa.s at 0.01 s -1 shear rate at 20°C and a viscoelastic dynamic behavior, said composition comprising: - an aqueous phase, - a surfactant system essentially consisting of one or more than one non-ionic surfactant, wherein the surfactant system has a mean HLB between 10 and 14, - a linker chosen in the group consisting of alcohols, salts and esters of carboxylic acids, salts and esters of hydroxyl carboxylic acids, fatty acids, fatty acid salts, glycerol fatty acids, surfactant having an HLB less than 10 and mixtures thereof, and - an oil phase comprising a hydrophobic active ingredient, preferably a perfume oil. - an aqueous phase, - a surfactant system essentially consisting of one or more than one non-ionic surfactant, wherein the surfactant system has a mean HLB between 10 and 14, - a linker chosen in the group consisting of alcohols, salts and esters of carboxylic acids, salts and esters of hydroxyl carboxylic acids, fatty acids, fatty acid salts, glycerol fatty acids, surfactant having an HLB less than 10 and mixtures thereof, and - an oil phase comprising a hydrophobic active ingredient, preferably a perfume oil.
A method of simulating digital assistant-based applications, the method comprising: providing, by a data processing system , for display in a web browser, an inner iframe configured to load an application, provided by a developer device , configured to integrate with a digital assistant; providing, by the data processing system, for display in the web browser, an outer iframe configured with a two-way communication protocol to communicate with the inner iframe; and providing, by the data processing system, a state machine to identify a current state of the application loaded in the inner iframe, and load a next state of the application responsive to a control input. providing, by a data processing system , for display in a web browser, an inner iframe configured to load an application, provided by a developer device , configured to integrate with a digital assistant; providing, by the data processing system, for display in the web browser, an outer iframe configured with a two-way communication protocol to communicate with the inner iframe; and providing, by the data processing system, a state machine to identify a current state of the application loaded in the inner iframe, and load a next state of the application responsive to a control input.
System for monitoring a distribution system of an electric power supply chain, wherein distribution system comprises - at least one low voltage distribution bus , divided into low voltage sections , for providing power to end consumers and - at least a further distribution bus of a higher voltage level, divided into higher voltage sections , - wherein a section is defined as a distribution network comprising one or more feeders below a transformer, - preferably at least a distribution bus of a medium voltage level and at least a distribution bus of a high voltage level, - wherein the distribution bus of the higher voltage level is connected to the distribution bus of a lower voltage level by at least one transformer , characterized in that, - the low voltage distribution bus is connected to one or a plurality of feeders , - wherein the feeders are assigned to the low voltage sections and every low voltage section comprises at least one local low voltage estimator and - wherein at least one higher voltage section comprises a higher voltage estimator configured to estimate the higher voltage state using a method of artificial neural network, and based on the at least one estimation of a low voltage section and/or measurements of that voltage section . - at least one low voltage distribution bus , divided into low voltage sections , for providing power to end consumers and - at least a further distribution bus of a higher voltage level, divided into higher voltage sections , - wherein a section is defined as a distribution network comprising one or more feeders below a transformer, - preferably at least a distribution bus of a medium voltage level and at least a distribution bus of a high voltage level, - preferably at least a distribution bus of a medium voltage level and at least a distribution bus of a high voltage level, - wherein the distribution bus of the higher voltage level is connected to the distribution bus of a lower voltage level by at least one transformer , - the low voltage distribution bus is connected to one or a plurality of feeders , - wherein the feeders are assigned to the low voltage sections and every low voltage section comprises at least one local low voltage estimator and - wherein at least one higher voltage section comprises a higher voltage estimator configured to estimate the higher voltage state using a method of artificial neural network, and based on the at least one estimation of a low voltage section and/or measurements of that voltage section .
A coil spring having a spring wire formed into a helical shape axially extending from one side to the other side, wherein a helical space defined by a space between coils that are adjacent to each other in an axial direction has a first end region wherein the space between coils in the natural length state is increased from a first reference point , where the space between coils in the natural length state is zero, circumferentially toward the other side in the axial direction along the helical shape, a reference region located closer to the other side in the axial direction than the first end region is, wherein the space between coils in the natural length state is at a reference value L (L> 0), and a second end region located closer to the other side in the axial direction than the reference region is, wherein the space between coils is reduced circumferentially toward the other side in the axial direction along the helical shape and the space between coils in the natural state is zero at a second reference point; the coil spring being characterized in that the first end region has a first end outer part that extends from the first reference point toward the other side in the axial direction by m (0<m<1) in the number of turns of the helical space, and a first end inner part that extends from an inner end position of the first end outer part in the axial direction toward the other side in the axial direction by n (0<n<1 and (m+n)<1) in the number of turns of the helical space; and in a case where a pitch angle of the space between coils that causes the displacement of the space between coils per turn of the helical space to be L is a reference pitch angle Pa, the pitch angle of the space between coils in the first end outer part is set at Pa while the pitch angle of the space between coils in the first end inner part is set at Pb (Pb>Pa).
An air conditioner that includes an indoor device including, inside a casing , an electrical-component box having electrical components accommodated therein, an indoor-device heat exchanger , and an indoor-device fan to deliver air to the indoor-device heat exchanger , the air conditioner comprising: a temperature measurement unit to measure a temperature of the indoor-device heat exchanger ; and a control unit ; characterized in that the control unit is configured to determine an upper limit of a rotational speed of the indoor-device fan on a basis of a temperature of the indoor-device heat exchanger measured by the temperature measurement unit , and to execute control to operate the indoor-device fan at a rotational speed equal to or lower than the determined upper limit so as to limit an air temperature within the electrical-component box to a temperature equal to or lower than the lowest rated temperature among the rated temperatures of the electrical components. a temperature measurement unit to measure a temperature of the indoor-device heat exchanger ; and a control unit ; characterized in that the control unit is configured to determine an upper limit of a rotational speed of the indoor-device fan on a basis of a temperature of the indoor-device heat exchanger measured by the temperature measurement unit , and to execute control to operate the indoor-device fan at a rotational speed equal to or lower than the determined upper limit so as to limit an air temperature within the electrical-component box to a temperature equal to or lower than the lowest rated temperature among the rated temperatures of the electrical components.
A method implemented by a user equipment in a wireless communication network , said method comprising: transmitting , to a base station , a dedicated random access preamble on a random access channel as a first part of a random access message; and transmitting , to the base station , a second part of the random access message using dedicated resources on an uplink shared channel, wherein the dedicated resources are associated with the dedicated random access preamble. transmitting , to a base station , a dedicated random access preamble on a random access channel as a first part of a random access message; and transmitting , to the base station , a second part of the random access message using dedicated resources on an uplink shared channel, wherein the dedicated resources are associated with the dedicated random access preamble.
A method of wireless communication, comprising: receiving a first wireless message from a first station at least partially concurrently with receiving a second wireless message from a second station ; generating a first acknowledgment message in response to receiving the first wireless message; generating a second acknowledgement message in response to receiving the second wireless message; transmitting the first acknowledgment message to the first station at least partially concurrently with transmitting the second acknowledgement message to the second station; receiving a third wireless message from a third station at least partially concurrently with the first wireless message and the second wireless message; receiving a fourth wireless message from the third station indicating the third station requests delayed block acknowledgments; and transmitting a third acknowledgment message to the third station after completion of the transmissions of the first and second wireless messages based on the fourth wireless message. receiving a first wireless message from a first station at least partially concurrently with receiving a second wireless message from a second station ; generating a first acknowledgment message in response to receiving the first wireless message; generating a second acknowledgement message in response to receiving the second wireless message; transmitting the first acknowledgment message to the first station at least partially concurrently with transmitting the second acknowledgement message to the second station; receiving a third wireless message from a third station at least partially concurrently with the first wireless message and the second wireless message; receiving a fourth wireless message from the third station indicating the third station requests delayed block acknowledgments; and transmitting a third acknowledgment message to the third station after completion of the transmissions of the first and second wireless messages based on the fourth wireless message.
A biological information monitor comprising: a measuring section configured to measure biological information, of a living body, having a periodically changing value; a sound outputting section configured to output a synchronous sound including a first sound (S1) and a second sound (S2) at a timing when the periodically changing value of the biological information coincides with a reference; and a sound controlling section configured to cause the second sound to be output in succession to the first sound, and configured to change the second sound in accordance with a measurement value of the biological information, the biological information periodically changes in accordance with respiration of the living body, the sound outputting section is configured to output the synchronous sound while setting the first sound and the second sound subsequent to the first sound as one unit, in a case where the measurement value of the biological information is within a normal range, the sound controlling section causes the second sound to be the same at least in one of a scale, tone, length, and volume of the first sound, in a case where the measurement value of the biological information is outside the normal range, the sound controlling section changes at least one of a scale, tone, length, and volume of the second sound with respect to the first sound. a measuring section configured to measure biological information, of a living body, having a periodically changing value; a sound outputting section configured to output a synchronous sound including a first sound (S1) and a second sound (S2) at a timing when the periodically changing value of the biological information coincides with a reference; and a sound controlling section configured to cause the second sound to be output in succession to the first sound, and configured to change the second sound in accordance with a measurement value of the biological information, the biological information periodically changes in accordance with respiration of the living body, the sound outputting section is configured to output the synchronous sound while setting the first sound and the second sound subsequent to the first sound as one unit, in a case where the measurement value of the biological information is within a normal range, the sound controlling section causes the second sound to be the same at least in one of a scale, tone, length, and volume of the first sound, in a case where the measurement value of the biological information is outside the normal range, the sound controlling section changes at least one of a scale, tone, length, and volume of the second sound with respect to the first sound.
Method for calibrating an internal sensor in a vehicle having an external sensor which is arranged in multi storage carpark for determining the location of the vehicle and is configured to sense external position data which are dependent on a position of the vehicle , comprising: - sensing the external position data with the external sensor , - transmitting the external position data to the vehicle and - calibrating internal position data which are sensed with the internal sensor and are dependent on the position of the vehicle , by means of a filter , on the basis of the external position data , characterized in that the external sensor is part of a guiding system for the vehicle in the multi storage car park in order to guide the vehicle into a parking space in the multi storage car park . - sensing the external position data with the external sensor , - transmitting the external position data to the vehicle and - calibrating internal position data which are sensed with the internal sensor and are dependent on the position of the vehicle , by means of a filter , on the basis of the external position data , characterized in that the external sensor is part of a guiding system for the vehicle in the multi storage car park in order to guide the vehicle into a parking space in the multi storage car park .
A method for controlling an autonomous driving configuration or an advanced driver-assistance system configuration comprising at least two adjustable parameters, the method comprising: at an electronic device with a display: displaying on the display a user interface comprising: a graphical representation of a current setting of the at least two adjustable parameters associated with the autonomous driving configuration or advanced driver-assistance configuration; detecting via one or more input devices, a user input directed towards a first adjustable parameter of the at least two adjustable parameters; updating the graphical representation on the display based on the detected user input by: modifying the current setting of the first adjustable parameter of the at least two adjustable parameters and modifying at least one characteristic of a second adjustable parameter of the at least two adjustable parameters based on the detected user input, wherein the first adjustable parameter comprises brake timing and wherein the second adjustable parameter comprises acceleration timing or distance to lead vehicle. displaying on the display a user interface comprising: a graphical representation of a current setting of the at least two adjustable parameters associated with the autonomous driving configuration or advanced driver-assistance configuration; detecting via one or more input devices, a user input directed towards a first adjustable parameter of the at least two adjustable parameters; updating the graphical representation on the display based on the detected user input by: modifying the current setting of the first adjustable parameter of the at least two adjustable parameters and modifying at least one characteristic of a second adjustable parameter of the at least two adjustable parameters based on the detected user input, wherein the first adjustable parameter comprises brake timing and wherein the second adjustable parameter comprises acceleration timing or distance to lead vehicle.