mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, UE, , the method comprising: receiving, from a base station , a remaining minimum system information, RMSI, including first information identifying a set of a Physical Uplink Control Channel, PUCCH, format, a first symbol and a Cyclic Shift, CS, index related information; receiving, from the base station , second information identifying at least one PUCCH resource in a downlink control information, DCI; and determining, based on the CS index related information and based on the second information, a physical resource block, PRB, index. receiving, from the base station , second information identifying at least one PUCCH resource in a downlink control information, DCI; and determining, based on the CS index related information and based on the second information, a physical resource block, PRB, index.
Autonomous actuator for driving a solar protection or occultation screen between several positions, comprising a hollow housing delimiting an interior space (E), in which are mounted: - a motor and a gearbox assembly , - a control circuit for driving the motor, - a battery pack connected to the control circuit, - a charge management circuit , managing the charging of the battery pack, the actuator comprising a charging connector configured to allow connection to an external charging device (PV, C), including a photovoltaic panel (PV) and an external charger (C) connected to a mains socket, characterised in that the charging connector comprises mechanical keying means , in that the charging connector is a three-point connector, defining three connection lines (P1, P2, N), one of which is a common line (N), to be compatible both with a power supply by photovoltaic panel (PV), during which the connection is made on a first line (P1) and on the common line (N), and by external charger (C), during which the connection is made on a second line (P2) and on the common line (N), and in that the load management circuit is configured to be informed of the nature of the external charging device (PV, C) via the powered lines (P1, P2, N). - a motor and a gearbox assembly , - a control circuit for driving the motor, - a battery pack connected to the control circuit, - a charge management circuit , managing the charging of the battery pack, the actuator comprising a charging connector configured to allow connection to an external charging device (PV, C), including a photovoltaic panel (PV) and an external charger (C) connected to a mains socket, characterised in that the charging connector comprises mechanical keying means , in that the charging connector is a three-point connector, defining three connection lines (P1, P2, N), one of which is a common line (N), to be compatible both with a power supply by photovoltaic panel (PV), during which the connection is made on a first line (P1) and on the common line (N), and by external charger (C), during which the connection is made on a second line (P2) and on the common line (N), and in that the load management circuit is configured to be informed of the nature of the external charging device (PV, C) via the powered lines (P1, P2, N).
A method of providing access to at least one password protected device (D1 - D5) via a password management system comprising first and second password management servers in data communication via a communication link , the method comprising: determining, at the first password management server , an active password which is registerable as a device password with, and provides access to, the at least one password protected device (D1 - D5), and at least one reserve password ; transmitting the active password and the at least one reserve password to the second password management server via the communication link , the active password for accessing the at least one password protected device (D1 - D5) from either or both of the first and second password management servers ; after communication of the active password and the at least one reserve password to the second password management server , further requesting, by the second password management server , access to the at least one password protected device (D1 - D5) using the active password; and if the further request using the active password does not provide access, requesting access using one or more of the at least one reserve passwords. determining, at the first password management server , an active password which is registerable as a device password with, and provides access to, the at least one password protected device (D1 - D5), and at least one reserve password ; transmitting the active password and the at least one reserve password to the second password management server via the communication link , the active password for accessing the at least one password protected device (D1 - D5) from either or both of the first and second password management servers ; after communication of the active password and the at least one reserve password to the second password management server , further requesting, by the second password management server , access to the at least one password protected device (D1 - D5) using the active password; and if the further request using the active password does not provide access, requesting access using one or more of the at least one reserve passwords.
A method for removal of sulfate from water contaminated by metal ions and sulfate, comprising: 1) a coagulation step, wherein water contaminated by metal ions and sulfate is treated in an electrocoagulation (EC)-unit, whereby metal ion contaminants are precipitated as a metal ion fraction, wherein the water contaminated by metal ions and sulfate optionally is subject to a neutralization step before being treated in the electrocoagulation (EC)-unit, wherein an acid or an alkali source is added to the contaminated water to adjust the pH to the range of 4 to 7; 2) a first fractionation step, wherein the metal ion fraction of step 1) is separated from the treated water to provide metal depleted water; 3) a gypsum precipitation step, wherein a calcium source is added to the metal depleted water of step 2), whereby gypsum is precipitated; 4) a second fractionation step, wherein the precipitated gypsum fraction of step 3) is separated from treated water to provide sulfate and metal depleted water; 5) an ettringite precipitation step, wherein a calcium and aluminum source, such as calcium aluminate, is added to the sulfate and metal depleted water to promote ettringite precipitation; 6) a third fractionation step, wherein the precipitated ettringite of step 5) is separated from the water, to provide purified water. 1) a coagulation step, wherein water contaminated by metal ions and sulfate is treated in an electrocoagulation (EC)-unit, whereby metal ion contaminants are precipitated as a metal ion fraction, wherein the water contaminated by metal ions and sulfate optionally is subject to a neutralization step before being treated in the electrocoagulation (EC)-unit, wherein an acid or an alkali source is added to the contaminated water to adjust the pH to the range of 4 to 7; 2) a first fractionation step, wherein the metal ion fraction of step 1) is separated from the treated water to provide metal depleted water; 3) a gypsum precipitation step, wherein a calcium source is added to the metal depleted water of step 2), whereby gypsum is precipitated; 4) a second fractionation step, wherein the precipitated gypsum fraction of step 3) is separated from treated water to provide sulfate and metal depleted water; 5) an ettringite precipitation step, wherein a calcium and aluminum source, such as calcium aluminate, is added to the sulfate and metal depleted water to promote ettringite precipitation; 6) a third fractionation step, wherein the precipitated ettringite of step 5) is separated from the water, to provide purified water.
A method for monitoring conditions within a wellbore of a subterranean well , the method including: extending a drill string into the subterranean well from a terranean surface , the drill string having an actuator assembly , a sensor compartment , and a plurality of sensors located within the sensor compartment; instructing the actuator assembly to transmit a swarm release signal to a central power unit of the sensor compartment so that the central power unit of the sensor compartment releases certain of the plurality of sensors from the sensor compartment; and transferring data from the certain of the plurality of sensors to a data processing system after the sensors reach the terranean surface; characterized in that each of the sensors of the plurality of sensors is retained within the sensor compartment by an electromagnet , and releasing the certain of the plurality of sensors from the sensor compartment includes stopping a delivery of power to the electromagnet of each of the certain of the plurality of sensors. extending a drill string into the subterranean well from a terranean surface , the drill string having an actuator assembly , a sensor compartment , and a plurality of sensors located within the sensor compartment; instructing the actuator assembly to transmit a swarm release signal to a central power unit of the sensor compartment so that the central power unit of the sensor compartment releases certain of the plurality of sensors from the sensor compartment; and transferring data from the certain of the plurality of sensors to a data processing system after the sensors reach the terranean surface; characterized in that each of the sensors of the plurality of sensors is retained within the sensor compartment by an electromagnet , and releasing the certain of the plurality of sensors from the sensor compartment includes stopping a delivery of power to the electromagnet of each of the certain of the plurality of sensors.
A security camera system comprising: a camera housing including a transparent camera bubble ; a camera located within the transparent camera bubble for generating images of a scene through the transparent camera bubble; and a condensation mitigation system for removing condensation on the transparent camera bubble of the security camera housing; characterized in that the system further comprises a controller arranged to analyze the images of the scene for indications of misting on the transparent camera bubble of the security camera housing by comparing a metric calculated for the images to the metric for previously captured images and arranged to activate the condensation mitigation system in response to detecting the indications of misting the controller analyzes the images for the indications of misting by calculating an edge sharpness or contrast metric for the images and compares the edge sharpness or contrast metric to the previously captured images, then determines whether there is a degradation in the edge sharpness or contrast, and activates the condensation mitigation system in response detecting the degradation of the edge sharpness or contrast in the images from the camera. a camera housing including a transparent camera bubble ; a camera located within the transparent camera bubble for generating images of a scene through the transparent camera bubble; and a condensation mitigation system for removing condensation on the transparent camera bubble of the security camera housing; characterized in that the system further comprises a controller arranged to analyze the images of the scene for indications of misting on the transparent camera bubble of the security camera housing by comparing a metric calculated for the images to the metric for previously captured images and arranged to activate the condensation mitigation system in response to detecting the indications of misting the controller analyzes the images for the indications of misting by calculating an edge sharpness or contrast metric for the images and compares the edge sharpness or contrast metric to the previously captured images, then determines whether there is a degradation in the edge sharpness or contrast, and activates the condensation mitigation system in response detecting the degradation of the edge sharpness or contrast in the images from the camera.
Hydraulic steering unit comprising a supply port arrangement having a supply port (P) and a return port (T), a working port arrangement having two working ports (L, R), a steering valve arrangement arranged between the supply port arrangement and the working port arrangement and having two valve elements arranged in a housing and being movable in relation to each other to change area characteristics of orifices (A13/14), and a measuring motor arranged in a line between the steering valve arrangement and one of the working ports (L, R), characterized in that backpressure means are provided generating a backpressure on the measuring motor , wherein the backpressure means are controlled by the valve elements , and friction means are provided between one of the valve elements and the housing or a rotating part of the measuring motor and the housing , respectively.
A method for an operation of a mobile station, MS, in a wireless communication system, the method comprising: storing first system information of a first base station, BS, providing a first cell when performing a handover from the first cell to a second cell provided by a second BS; in response to a change of system information of the first BS from the first system information to second system information after the handover from the first cell to the second cell is completed , receiving , from the first BS via the second BS, the second system information of the first BS; detecting that a radio link failure, RLF, occurs in the second cell; and searching for the first base station and performing a re-establishment procedure with the first BS based on the received second system information, wherein the coverage of the second cell is comprised in the coverage of the first cell, and wherein the second system information is different from the first system information. storing first system information of a first base station, BS, providing a first cell when performing a handover from the first cell to a second cell provided by a second BS; in response to a change of system information of the first BS from the first system information to second system information after the handover from the first cell to the second cell is completed , receiving , from the first BS via the second BS, the second system information of the first BS; detecting that a radio link failure, RLF, occurs in the second cell; and searching for the first base station and performing a re-establishment procedure with the first BS based on the received second system information, wherein the coverage of the second cell is comprised in the coverage of the first cell, and wherein the second system information is different from the first system information.
A person detection system for a marine vessel having at least one marine drive , the person detection system comprising: at least one image sensor (28a-28d) positioned on the marine vessel and configured to capture an image of a marine environment on or around the marine vessel , and a processor , characterized in that the at least one image sensor is a visual light camera positioned to capture an image of a helm area of the marine vessel , the system further comprises an image scanning module executable on the processor that receives the image as input, and the image scanning module includes an artificial neural network trained - to detect patterns within the image of the marine environment associated with a person in the helm area , - to detect the presence or absence of the person within the image of the helm area , and - to output detection information regarding the presence or absence of the person within the image of the marine environment. at least one image sensor (28a-28d) positioned on the marine vessel and configured to capture an image of a marine environment on or around the marine vessel , and a processor , characterized in that the at least one image sensor is a visual light camera positioned to capture an image of a helm area of the marine vessel , the system further comprises an image scanning module executable on the processor that receives the image as input, and the image scanning module includes an artificial neural network trained - to detect patterns within the image of the marine environment associated with a person in the helm area , - to detect the presence or absence of the person within the image of the helm area , and - to output detection information regarding the presence or absence of the person within the image of the marine environment. - to detect patterns within the image of the marine environment associated with a person in the helm area , - to detect the presence or absence of the person within the image of the helm area , and - to output detection information regarding the presence or absence of the person within the image of the marine environment.
A method for calculating a recovery score with a wearable, continuous physiological monitoring system , , : monitoring sleep states of a user over a period of time with the continuous physiological monitoring system , , ; monitoring a heart rate of the user substantially continuously with the continuous physiological monitoring system , , over the period of time; recording heart rate data within the period of time; detecting, within the period of time, a waking event at a transition from a last sleep state of the user to an awake state; determining an end of a most recent slow wave sleep state occurring most recently before the waking event; calculating a heart rate variability of the user at the end of the most recent slow wave sleep state preceding the waking event based upon the heart rate data; and calculating a recovery score for the user based upon the heart rate variability from the end of the most recent slow wave sleep state preceding the waking event, the recovery score indicative of a level of recovery of the user's body and health after a period of physical exertion. monitoring sleep states of a user over a period of time with the continuous physiological monitoring system , , ; monitoring a heart rate of the user substantially continuously with the continuous physiological monitoring system , , over the period of time; recording heart rate data within the period of time; detecting, within the period of time, a waking event at a transition from a last sleep state of the user to an awake state; determining an end of a most recent slow wave sleep state occurring most recently before the waking event; calculating a heart rate variability of the user at the end of the most recent slow wave sleep state preceding the waking event based upon the heart rate data; and calculating a recovery score for the user based upon the heart rate variability from the end of the most recent slow wave sleep state preceding the waking event, the recovery score indicative of a level of recovery of the user's body and health after a period of physical exertion.
A beverage supply apparatus configured to supply two or more kinds of beverages, the beverage supply apparatus comprising: a plurality of nozzles (5a-c; 50; 51; 52) configured to discharge the two or more kinds of beverages; a touch panel configured to display selection options of the two or more kinds of beverages and receives a selection operation for selecting one of the two or more kinds of beverages; a plurality of physical buttons (3a-c) that corresponds to the plurality of nozzles and that is configured to receive a request to discharge the beverage selected by the selection operation; and a control section configured to specify a physical button corresponding to a nozzle from which the beverage selected by the selection operation is discharged from among the plurality of the physical buttons, the control section being configured to control the touch panel to indicate the specified physical button. a plurality of nozzles (5a-c; 50; 51; 52) configured to discharge the two or more kinds of beverages; a touch panel configured to display selection options of the two or more kinds of beverages and receives a selection operation for selecting one of the two or more kinds of beverages; a plurality of physical buttons (3a-c) that corresponds to the plurality of nozzles and that is configured to receive a request to discharge the beverage selected by the selection operation; and a control section configured to specify a physical button corresponding to a nozzle from which the beverage selected by the selection operation is discharged from among the plurality of the physical buttons, the control section being configured to control the touch panel to indicate the specified physical button.
A linearized electro-optic modulator comprising: a) a substrate comprising a first Mach Zehnder interferometer comprising a first and second optical waveguide and a second Mach Zehnder interferometer comprising a first and a second optical waveguide; b) a signal electrode positioned on the substrate between the first and second Mach Zehnder interferometers to receive a modulation signal; and c) first and second ground electrodes positioned on the substrate that are electrically connected to ground potential, wherein the signal electrode and the first and second ground electrodes are positioned so that an electric field generated by the signal electrode modulates both the first and second Mach Zehnder interferometers to generate a first and a second modulated optical signal; characterised in that the first ground electrode is positioned on the substrate between the first and second optical waveguides of the first Mach Zehnder interferometer and the second ground electrode is positioned on the substrate between the first and second optical waveguides of the second Mach Zehnder interferometer ; and in that the signal electrode is positioned closer to the second ground electrode than to the first ground electrode . a) a substrate comprising a first Mach Zehnder interferometer comprising a first and second optical waveguide and a second Mach Zehnder interferometer comprising a first and a second optical waveguide; b) a signal electrode positioned on the substrate between the first and second Mach Zehnder interferometers to receive a modulation signal; and c) first and second ground electrodes positioned on the substrate that are electrically connected to ground potential, wherein the signal electrode and the first and second ground electrodes are positioned so that an electric field generated by the signal electrode modulates both the first and second Mach Zehnder interferometers to generate a first and a second modulated optical signal; characterised in that the first ground electrode is positioned on the substrate between the first and second optical waveguides of the first Mach Zehnder interferometer and the second ground electrode is positioned on the substrate between the first and second optical waveguides of the second Mach Zehnder interferometer ; and in that the signal electrode is positioned closer to the second ground electrode than to the first ground electrode . wherein the signal electrode and the first and second ground electrodes are positioned so that an electric field generated by the signal electrode modulates both the first and second Mach Zehnder interferometers to generate a first and a second modulated optical signal; characterised in that the first ground electrode is positioned on the substrate between the first and second optical waveguides of the first Mach Zehnder interferometer and the second ground electrode is positioned on the substrate between the first and second optical waveguides of the second Mach Zehnder interferometer ; and in that the signal electrode is positioned closer to the second ground electrode than to the first ground electrode .