mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a User Equipment, UE, in a wireless communication system to transmit a channel Sounding Reference Signal, SRS, the method comprising: receiving a control channel for transmitting an uplink data channel transmission from a Base Station, BS , wherein the control channel comprises information indicating whether the UE transmits the channel SRS simultaneously with the uplink data in a subframe; determining whether aperiodic channel SRS transmission is requested in the control channel ; and when it is determined that aperiodic channel SRS transmission is requested in the control channel , and the information indicates transmitting the channel SRS simultaneously with the uplink data in the subframe: transmitting uplink data through a first carrier in a subframe to the BS; and transmitting the aperiodic channel SRS through a second carrier in the subframe to the BS simultaneously with transmitting the uplink data, wherein a resource location in the subframe for the transmission of the aperiodic channel SRS is determined based on the received control channel. receiving a control channel for transmitting an uplink data channel transmission from a Base Station, BS , wherein the control channel comprises information indicating whether the UE transmits the channel SRS simultaneously with the uplink data in a subframe; determining whether aperiodic channel SRS transmission is requested in the control channel ; and when it is determined that aperiodic channel SRS transmission is requested in the control channel , and the information indicates transmitting the channel SRS simultaneously with the uplink data in the subframe: transmitting uplink data through a first carrier in a subframe to the BS; and transmitting the aperiodic channel SRS through a second carrier in the subframe to the BS simultaneously with transmitting the uplink data, wherein a resource location in the subframe for the transmission of the aperiodic channel SRS is determined based on the received control channel. transmitting uplink data through a first carrier in a subframe to the BS; and transmitting the aperiodic channel SRS through a second carrier in the subframe to the BS simultaneously with transmitting the uplink data, wherein a resource location in the subframe for the transmission of the aperiodic channel SRS is determined based on the received control channel.
An apparatus comprising: a lift turbine assembly operatively interconnected with an axial flow turbine assembly , the lift turbine assembly and the axial flow turbine assembly being housed within a container filled with a gas; the lift turbine assembly including: (a) an input stator having a first set of blades, the first set of blades causing a counter rotation flow in the gas; (b) a lift turbine having a second set of blades, the second set of blades generating lift force, the second set of blades rotating into the counter rotation flow of the gas; and the axial flow turbine assembly including: (a) an axial flow input stator having a third set of blades; (b) an axial flow turbine having a fourth set of blades, the fourth set of blades rotating into the counter rotation flow, wherein the container is sealed from an outside atmosphere . a lift turbine assembly operatively interconnected with an axial flow turbine assembly , the lift turbine assembly and the axial flow turbine assembly being housed within a container filled with a gas; the lift turbine assembly including: (a) an input stator having a first set of blades, the first set of blades causing a counter rotation flow in the gas; (b) a lift turbine having a second set of blades, the second set of blades generating lift force, the second set of blades rotating into the counter rotation flow of the gas; and (a) an input stator having a first set of blades, the first set of blades causing a counter rotation flow in the gas; (b) a lift turbine having a second set of blades, the second set of blades generating lift force, the second set of blades rotating into the counter rotation flow of the gas; and the axial flow turbine assembly including: (a) an axial flow input stator having a third set of blades; (b) an axial flow turbine having a fourth set of blades, the fourth set of blades rotating into the counter rotation flow, (a) an axial flow input stator having a third set of blades; (b) an axial flow turbine having a fourth set of blades, the fourth set of blades rotating into the counter rotation flow,
Room air and/or air conditioning system for ventilating a room or rooms with at least one main air line , wherein at least one partial air line branches off from the main air line in the region of a branching point , and/or the main air line divides into at least two partial air lines in the region of a branching point , wherein the main air line comprises an air inlet for admitting a flowing medium, and wherein, arranged in the main air line between the air inlet and the branching point arranged closest to the air inlet along the direction of flow , is a main air line ventilator , wherein each partial air line comprises at least one air outlet , and wherein a regulatable volume flow regulator is arranged upstream of each air outlet provided in the partial air line , in order to regulate the volume flow of the medium flowing via the air outlet concerned, wherein the corresponding volume flow regulator comprises in each case an actuator and a regulating device , and a sensor , preferably a differential pressure sensor, is allocated to the flow regulator, for measuring the speed and/or for measuring the effective pressure, characterised in that a partial air line ventilator is assigned to at least one partial air line , between the branching point of this partial air line and the volume flow regulator arranged most closely to the branching point along the direction of flow, that all the volume flow regulators of a partial air line are connected via a partial regulating unit to the partial air line ventilator of this partial air line , wherein the partial regulating unit is configured such that it regulates the partial air line ventilator as a dependency of the information obtained from the volume flow regulators of this partial air line regarding their respective flap setting, and that the partial air line ventilators of all the partial air lines are connected via a main regulating unit to the main air line ventilator , wherein the main regulating unit is configured, as a dependency of the information received from the partial air line ventilators , to regulate the main air line ventilator to its respective speed of rotation and/or to its respective power consumption.
Process for manufacturing a monofilament made of glass-resin composite comprising glass filaments embedded in a resin, comprising at least the following steps: - creating a rectilinear arrangement of glass filaments and conveying this arrangement in a feed direction: - in a vacuum chamber, degassing the arrangement of glass filaments by the action of the vacuum; - at the outlet of the vacuum chamber, after degassing, passing through an impregnation chamber under vacuum so as to impregnate said arrangement of glass filaments with a photocurable resin composition in the liquid state, referred to as impregnation resin, to obtain a pre-preg containing the glass filaments and the resin composition; - passing said pre-preg through a sizing die having a cross section of predefined area and shape, to provide it with the shape of a monofilament; - downstream of the die, in a UV irradiation chamber, polymerizing the resin composition under the action of the UV rays, the irradiation chamber comprising a tube which is transparent to UV rays, referred to as an irradiation tube, through which the monofilament moves during formation, having a stream of inert gas flowing through it characterized in that : - the speed, denoted Sir, of passage of the monofilament through the irradiation chamber is in a range from 60 to 120 m/min; - the duration of irradiation, denoted D ir , of the monofilament in the irradiation chamber is in a range from 2 to 5 s. - creating a rectilinear arrangement of glass filaments and conveying this arrangement in a feed direction: - in a vacuum chamber, degassing the arrangement of glass filaments by the action of the vacuum; - at the outlet of the vacuum chamber, after degassing, passing through an impregnation chamber under vacuum so as to impregnate said arrangement of glass filaments with a photocurable resin composition in the liquid state, referred to as impregnation resin, to obtain a pre-preg containing the glass filaments and the resin composition; - passing said pre-preg through a sizing die having a cross section of predefined area and shape, to provide it with the shape of a monofilament; - downstream of the die, in a UV irradiation chamber, polymerizing the resin composition under the action of the UV rays, the irradiation chamber comprising a tube which is transparent to UV rays, referred to as an irradiation tube, through which the monofilament moves during formation, having a stream of inert gas flowing through it - the speed, denoted Sir, of passage of the monofilament through the irradiation chamber is in a range from 60 to 120 m/min; - the duration of irradiation, denoted D ir , of the monofilament in the irradiation chamber is in a range from 2 to 5 s.
An image encoding device adapted to segment an image into blocks and encode the image in units of blocks resulting from segmenting the image, comprising: a block segmentation unit that recursively segments the image into rectangles of a predetermined size to generate a target block subject to encoding; and an encoding unit that encodes block segmentation information of the target block, wherein the block segmentation unit includes: a quartering unit that quarters the target block in recursive segmentation in a horizontal direction and a vertical direction to generate four blocks; and a halving unit that halves the target block in recursive segmentation in a horizontal direction or a vertical direction to generate two blocks, wherein the four blocks are encoded in an order of top-left, top-right, bottom-left, and bottom-right; and wherein when previous recursive segmentation is halving and the target block is of a predetermined size or smaller, the halving unit prohibits the target block subject to current recursive segmentation from being segmented in the same direction as a direction in which the target block was segmented in the previous recursive segmentation. a block segmentation unit that recursively segments the image into rectangles of a predetermined size to generate a target block subject to encoding; and an encoding unit that encodes block segmentation information of the target block, wherein the block segmentation unit includes: a quartering unit that quarters the target block in recursive segmentation in a horizontal direction and a vertical direction to generate four blocks; and a halving unit that halves the target block in recursive segmentation in a horizontal direction or a vertical direction to generate two blocks, wherein the four blocks are encoded in an order of top-left, top-right, bottom-left, and bottom-right; and wherein when previous recursive segmentation is halving and the target block is of a predetermined size or smaller, the halving unit prohibits the target block subject to current recursive segmentation from being segmented in the same direction as a direction in which the target block was segmented in the previous recursive segmentation. a quartering unit that quarters the target block in recursive segmentation in a horizontal direction and a vertical direction to generate four blocks; and a halving unit that halves the target block in recursive segmentation in a horizontal direction or a vertical direction to generate two blocks, wherein the four blocks are encoded in an order of top-left, top-right, bottom-left, and bottom-right; and wherein when previous recursive segmentation is halving and the target block is of a predetermined size or smaller, the halving unit prohibits the target block subject to current recursive segmentation from being segmented in the same direction as a direction in which the target block was segmented in the previous recursive segmentation.
A thin-film transistor substrate comprising: a first buffer layer on a substrate ; a lower protective metal layer on the first buffer layer ; a second buffer layer on the lower protective metal layer ; a semiconductor layer on the second buffer layer and comprising a channel region (CH), lightly doped regions (LDD), a source region (S), and a drain region (D); a first insulating film on the semiconductor layer ; a gate electrode on the first insulating film and electrically connected to the lower protective metal layer ; a second insulating film on the gate electrode ; and source and drain electrodes on the second insulating film and electrically connected to the source (S) and drain (D) regions, respectively; wherein the lower protective metal layer overlaps the channel region (CH) of the semiconductor layer , and wherein the substrate is flexible and formed of plastic. a first buffer layer on a substrate ; a lower protective metal layer on the first buffer layer ; a second buffer layer on the lower protective metal layer ; a semiconductor layer on the second buffer layer and comprising a channel region (CH), lightly doped regions (LDD), a source region (S), and a drain region (D); a first insulating film on the semiconductor layer ; a gate electrode on the first insulating film and electrically connected to the lower protective metal layer ; a second insulating film on the gate electrode ; and source and drain electrodes on the second insulating film and electrically connected to the source (S) and drain (D) regions, respectively; wherein the lower protective metal layer overlaps the channel region (CH) of the semiconductor layer , and wherein the substrate is flexible and formed of plastic.
A control device for an arc furnace , the control device comprising: a flicker module for determining a flicker value in a grid supplying the arc furnace ; an arc furnace control module for controlling the arc furnace based on the flicker value ; wherein the arc furnace control module and the flicker module are integrated into one structural component ; wherein the flicker module is adapted for providing at least one of a short-term flicker value and a long-term flicker value to the arc furnace control module , the short-term flicker value being based on voltage measurements in the grid in an interval of 10 min, the long-term flicker value being based on voltage measurements in the grid in an interval of 2h; wherein the flicker module is adapted for providing an instantaneous flicker value to the arc furnace control module , the instantaneous flicker value being based on voltage measurements in the grid in an interval of less than 10 s; wherein the arc furnace control module is adapted for controlling an arc voltage and/or an arc current of the arc furnace based on the instantaneous flicker value and at least one of the short-term flicker value and the long-term flicker value and is adapted for controlling a converter for generating the arc current for the arc furnace . a flicker module for determining a flicker value in a grid supplying the arc furnace ; an arc furnace control module for controlling the arc furnace based on the flicker value ; wherein the arc furnace control module and the flicker module are integrated into one structural component ; wherein the flicker module is adapted for providing at least one of a short-term flicker value and a long-term flicker value to the arc furnace control module , the short-term flicker value being based on voltage measurements in the grid in an interval of 10 min, the long-term flicker value being based on voltage measurements in the grid in an interval of 2h; wherein the flicker module is adapted for providing an instantaneous flicker value to the arc furnace control module , the instantaneous flicker value being based on voltage measurements in the grid in an interval of less than 10 s; wherein the arc furnace control module is adapted for controlling an arc voltage and/or an arc current of the arc furnace based on the instantaneous flicker value and at least one of the short-term flicker value and the long-term flicker value and is adapted for controlling a converter for generating the arc current for the arc furnace .
An information processing apparatus under a network environment in a cloud in a control communication system for control communication with physical equipment comprising: a control communication unit configured to transmit and receive control communication information according to a control communication protocol; and an adaptor configured to generate first control communication information of a first communication method, including at least either multicast or broadcast, for one-to-many communication from among the control communication information required for the control communication based on the control communication protocol, the adaptor generating the first control communication information with use of information acquired from a network environment manager not included in a network in the cloud along a path different from a communication path, where the first communication method is not supported, of the control communication on the network in the cloud, and to output the first control communication information to the control communication unit. a control communication unit configured to transmit and receive control communication information according to a control communication protocol; and an adaptor configured to generate first control communication information of a first communication method, including at least either multicast or broadcast, for one-to-many communication from among the control communication information required for the control communication based on the control communication protocol, the adaptor generating the first control communication information with use of information acquired from a network environment manager not included in a network in the cloud along a path different from a communication path, where the first communication method is not supported, of the control communication on the network in the cloud, and to output the first control communication information to the control communication unit.
A combined light switch and thermostat for deployment in a room of a property, comprising: a screen for displaying at least a portion of a user interface of the combined light switch and thermostat ; a power relay configured to control alternating current, AC, power flow to at least one lighting device wired through the combined light switch and thermostat ; one or more network interfaces configured to communicate with one or more in-room devices of the room of the property and a central host controller that administers and controls a plurality of rooms of the property, wherein the one or more in-room devices include at least a climate control device; a processor configured to execute control code; a memory configured to store the control code, wherein the control code when executed is operable to, in response to user input in the user interface of the combined light switch and thermostat , control AC power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices , and in response to a service request from the central host controller , control A/C power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices . a screen for displaying at least a portion of a user interface of the combined light switch and thermostat ; a power relay configured to control alternating current, AC, power flow to at least one lighting device wired through the combined light switch and thermostat ; one or more network interfaces configured to communicate with one or more in-room devices of the room of the property and a central host controller that administers and controls a plurality of rooms of the property, wherein the one or more in-room devices include at least a climate control device; a processor configured to execute control code; a memory configured to store the control code, wherein the control code when executed is operable to, in response to user input in the user interface of the combined light switch and thermostat , control AC power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices , and in response to a service request from the central host controller , control A/C power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices . in response to user input in the user interface of the combined light switch and thermostat , control AC power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices , and in response to a service request from the central host controller , control A/C power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices .
Apparatus for treating neurological disorders comprising: - at least one electrode implantable in the brain of a patient, and - a processing and stimulation device connected to the at least one electrode , wherein the processing and stimulation device at least comprises - a stimulation module configured to generate a stimulation signal to be sent to the at least one electrode , and - an acquisition module configured to acquire a neural signal measured by the at least one electrode from the brain of the patient, wherein the acquisition module at least comprises a front-end block configured to amplify the potential difference of its input signals (V 1a , V 2a ) and to filter a stimulus artifact by cutting off frequencies above a predefined frequency band; characterized in that the front-end block comprises a multi-stage fully-differential switched capacitor circuit configured for discrete-time signal processing. - at least one electrode implantable in the brain of a patient, and - a processing and stimulation device connected to the at least one electrode , wherein the processing and stimulation device at least comprises - a stimulation module configured to generate a stimulation signal to be sent to the at least one electrode , and - an acquisition module configured to acquire a neural signal measured by the at least one electrode from the brain of the patient, wherein the acquisition module at least comprises a front-end block configured to amplify the potential difference of its input signals (V 1a , V 2a ) and to filter a stimulus artifact by cutting off frequencies above a predefined frequency band; characterized in that the front-end block comprises a multi-stage fully-differential switched capacitor circuit configured for discrete-time signal processing.
Method for operating a sanitary device , in which a flushing liquid is conducted through a line system of the sanitary device , wherein the liquid consumption of at least one sanitary component of the sanitary device is controlled in a manner dependent, or at least also in a manner dependent, on the liquid consumption in the past, wherein an automatic special flushing operation, which is independent of an actual current use, is triggered if the sanitary component has remained unused for a predefined pause duration, wherein the sanitary component is arranged in a separate sanitary area , which is able to be closed off by a door, wherein - a sensor monitors locking of a door closing off the separate sanitary area , and - the special flushing operation is not realized if the door is locked. - a sensor monitors locking of a door closing off the separate sanitary area , and - the special flushing operation is not realized if the door is locked.