mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless transmissions by a transmit point, the method comprising: encoding a traffic flow using a fountain code to obtain encoded packets; transmitting to a receive point over a unified air interface operating in accordance with a common radio access technology (RAT) a first subset of the encoded packets over a licensed band, and a second subset of the encoded packets over an unlicensed band; and dynamically adjusting rates at which the first subset and second subsets of encoded packets are transmitted to the receive point over the licensed band and the unlicensed band in accordance with a condition of the unlicensed band. encoding a traffic flow using a fountain code to obtain encoded packets; transmitting to a receive point over a unified air interface operating in accordance with a common radio access technology (RAT) a first subset of the encoded packets over a licensed band, and a second subset of the encoded packets over an unlicensed band; and dynamically adjusting rates at which the first subset and second subsets of encoded packets are transmitted to the receive point over the licensed band and the unlicensed band in accordance with a condition of the unlicensed band.
A method performed by an apparatus, the apparatus comprising multiple processors, of generating an output sequence (152;240) comprising a plurality of outputs from an input sequence (102;230) comprising a plurality of inputs, the method comprising: receiving the input sequence; processing the input sequence using a latent prediction model configured to autoregressively predict a sequence of discrete latent variables that is shorter than the output sequence and that encodes the output sequence, wherein each discrete latent variable in the sequence is selected from a discrete set of latent variables; and processing, the input sequence and the predicted sequence of discrete latent variables using a parallel decoder model configured to generate the outputs in the output sequence in parallel from the input sequence and the predicted sequence of discrete latent variables, wherein each one of the outputs of the output sequence is generated independently from the other outputs of the output sequence. receiving the input sequence; processing the input sequence using a latent prediction model configured to autoregressively predict a sequence of discrete latent variables that is shorter than the output sequence and that encodes the output sequence, wherein each discrete latent variable in the sequence is selected from a discrete set of latent variables; and processing, the input sequence and the predicted sequence of discrete latent variables using a parallel decoder model configured to generate the outputs in the output sequence in parallel from the input sequence and the predicted sequence of discrete latent variables, wherein each one of the outputs of the output sequence is generated independently from the other outputs of the output sequence.
A light emitting module , comprising: a body ; first to M th light emitting devices disposed on the body to be spaced apart from each other, wherein M is an integer of 2 or greater; and a turn-on controller configured to control the first to M th light emitting devices to turn on, wherein each of the first to M th light emitting devices comprises first to N th light emitting cells, wherein N is an integer of 2 or greater, and wherein an n th light emitting cell among the first to N th light emitting cells comprises at least one light emitting structure (D), wherein 1 ≤ n ≤ N, and wherein the turn-on controller comprises first to N th switches (S1∼SN), wherein the turn-on controller further comprises a switching controller configured to control switching of the first to Nth switches according to a level of a driving voltage, and wherein said first to N th light emitting cells of an m th light emitting device among the first to M th light emitting devices are respectively connected to each other in series, wherein 1 ≤ m ≤ M; characterized in that the turn-on controller is configured to simultaneously turn on or turn off the n th light emitting cells of the first to M th light emitting devices , wherein the n th light emitting cells of the first to M th light emitting devices are respectively connected to each other in parallel, and the first to N th switches (S1∼SN) are connected between a common reference potential and each respective channel (CH1, CH2, CH3, CH4) disposed between adjacent ones of each of the first to N th light emitting cells. a body ; first to M th light emitting devices disposed on the body to be spaced apart from each other, wherein M is an integer of 2 or greater; and a turn-on controller configured to control the first to M th light emitting devices to turn on, wherein each of the first to M th light emitting devices comprises first to N th light emitting cells, wherein N is an integer of 2 or greater, and wherein an n th light emitting cell among the first to N th light emitting cells comprises at least one light emitting structure (D), wherein 1 ≤ n ≤ N, and wherein the turn-on controller comprises first to N th switches (S1∼SN), wherein the turn-on controller further comprises a switching controller configured to control switching of the first to Nth switches according to a level of a driving voltage, and wherein said first to N th light emitting cells of an m th light emitting device among the first to M th light emitting devices are respectively connected to each other in series, wherein 1 ≤ m ≤ M; characterized in that the turn-on controller is configured to simultaneously turn on or turn off the n th light emitting cells of the first to M th light emitting devices , wherein the n th light emitting cells of the first to M th light emitting devices are respectively connected to each other in parallel, and the first to N th switches (S1∼SN) are connected between a common reference potential and each respective channel (CH1, CH2, CH3, CH4) disposed between adjacent ones of each of the first to N th light emitting cells.
Covering device for a component of a tilting vehicle, having at least one cladding means which is able to be arranged or is arranged on the component so as to at least sectionally overlie the latter, and having at least one carrier means by way of which the cladding means is able to be fixed or is fixed directly or indirectly to the component and which protrudes with a projection through a continuous cutout in the cladding means and is accessible from the outside, and having at least one fluid-conducting unit which comprises at least one fluid channel , formed at least sectionally between the cladding means and the carrier means and/or the component , and which comprises at least one inlet , through which fluid is able to be fed to the fluid channel of the fluid-conducting unit , said at least one inlet being formed by a gap between the cutout in the cladding means and the projection of the carrier means , and which comprises at least one outlet , through which the fluid is able to be removed outwards to the surroundings from the fluid channel .
A method for manufacturing a liquid crystal aligning film comprising: preparing a multilayer structure in which a substrate , a conductive layer , a liquid crystal alignment layer , and a passivation film are sequentially provided; etching one area of the liquid crystal alignment layer by irradiating a pulse laser to the multilayer structure; and exposing one area of the conductive layer by removing the passivation film , wherein the pulse laser is irradiated to the liquid crystal alignment layer from the passivation film . preparing a multilayer structure in which a substrate , a conductive layer , a liquid crystal alignment layer , and a passivation film are sequentially provided; etching one area of the liquid crystal alignment layer by irradiating a pulse laser to the multilayer structure; and exposing one area of the conductive layer by removing the passivation film , wherein the pulse laser is irradiated to the liquid crystal alignment layer from the passivation film .
Method for controlling a movement of a vehicle , wherein the vehicle comprises a vehicle motion control system , which comprises at least one generating device for generating specification data for the movement of the vehicle , at least one providing device for providing vehicle characteristics of the vehicle and at least one actuator for influencing the motion of the vehicle , characterized by at least the following steps: - reading the specification data from an interface to the generating device , wherein the specification data represents a driving corridor and/or a speed profile for the vehicle for a route section, and the vehicle characteristics from an interface to the at least one providing device , wherein the vehicle characteristics represent a position of a saddle point between the towing vehicle and semi-trailer or trailer, an axle configuration, a permissible lateral acceleration, a centre of gravity position and a tipping limit; - determining guidance data for the vehicle using the specification data and the vehicle characteristics , wherein the guidance data can be used to control the movement of the vehicle in compliance with the specification data ; - determining at least one manipulated variable for the at least one actuator using the guidance data ; and outputting the at least one manipulated variable at an interface to the at least one actuator . - reading the specification data from an interface to the generating device , wherein the specification data represents a driving corridor and/or a speed profile for the vehicle for a route section, and the vehicle characteristics from an interface to the at least one providing device , wherein the vehicle characteristics represent a position of a saddle point between the towing vehicle and semi-trailer or trailer, an axle configuration, a permissible lateral acceleration, a centre of gravity position and a tipping limit; - determining guidance data for the vehicle using the specification data and the vehicle characteristics , wherein the guidance data can be used to control the movement of the vehicle in compliance with the specification data ; - determining at least one manipulated variable for the at least one actuator using the guidance data ; and
A measuring device including a probe for measuring a measuring object, wherein the probe is a water quality measuring probe, input means and display means for a user, an error determination part configured to determine an error content being an electrode abnormality as a measurement error in a measurement mode, an asymmetry potential abnormality or a sensitivity abnormality as a calibration error in a calibration mode based on the probe output signal, wherein the error determination part is configured to output the error content, and a display control part configured to display a measurement result obtained by measuring the measurement object on the display means, characterized in that the display control part has a solution display mode in which the display control part is configured to sequentially display a plurality of question sentences in accordance with the error content in the measurement or calibration mode together with choices to the respective question sentences on the display means and to display next question sentences associated with the choice selected by a user and a choice to the next question sentences or a solution to the error content; wherein each of the choices is selectable by the user via the input means, wherein each of the choices is indicative of a sign of trouble that causes the error content in the measurement or calibration mode; and the display control part is configured to display the choice to each of the question sentences together with a choice diagram showing the content of the corresponding choice.
Image processing device for a medical observation device , such as a microscope or endoscope, wherein the image processing device comprises an image processor , the image processor being configured to obtain a digital pseudocolor pattern , the digital pseudocolor pattern having a first pattern characteristic and a second, different pattern characteristic , and comprising a pseudocolor , to combine the digital pseudocolor pattern with an input area of a retrieved digital input image , thus forming a patterned region ; to vary the first pattern characteristic of the pseudocolor pattern at a location in the patterned region depending on a local characteristic at a matching location in the input area and vary the second pattern characteristic of the pseudocolor pattern in the patterned region depending on a global characteristic of the input area ; and to output at least one digital output image comprising the patterned region. to obtain a digital pseudocolor pattern , the digital pseudocolor pattern having a first pattern characteristic and a second, different pattern characteristic , and comprising a pseudocolor , to combine the digital pseudocolor pattern with an input area of a retrieved digital input image , thus forming a patterned region ; to vary the first pattern characteristic of the pseudocolor pattern at a location in the patterned region depending on a local characteristic at a matching location in the input area and vary the second pattern characteristic of the pseudocolor pattern in the patterned region depending on a global characteristic of the input area ; and to output at least one digital output image comprising the patterned region.
A motion detecting device for detecting a motion of an operator's finger for remotely operating a multi-articulated robot, the motion detecting device comprising: a device main body that is installed such that the finger is placed thereon; a contact part that is where the finger contacts the device main body and has a shape following shape of the finger; and a detection part that detects the motion of the finger on the basis of a pressing state of the finger against the contact part, characterized in that the device main body has a spherical part having a spherical shape or a shape which is partially ellipsoid or entirely ellipsoid; and the contact part is formed on the outer peripheral surface of the device main body and includes a rotating part (45a to 45e) that rotates around a shaft part in accordance with a pressing of the finger and the detection part detects the motion of the finger on the basis of the rotation amount of the rotating part. a device main body that is installed such that the finger is placed thereon; a contact part that is where the finger contacts the device main body and has a shape following shape of the finger; and a detection part that detects the motion of the finger on the basis of a pressing state of the finger against the contact part, the device main body has a spherical part having a spherical shape or a shape which is partially ellipsoid or entirely ellipsoid; and the contact part is formed on the outer peripheral surface of the device main body and includes a rotating part (45a to 45e) that rotates around a shaft part in accordance with a pressing of the finger and the detection part detects the motion of the finger on the basis of the rotation amount of the rotating part.
A method comprising: detecting a change in an inclination about a longitudinal axis at a panel of an electronic device, the panel having a display surface; detecting a rotation in an in-plane rotation direction of the panel from a first orientation to a second orientation; and automatically continually redrawing an image displayed at the display surface responsive to the rotation in order to maintain an orientation of the image with respect to a viewer when the change in the inclination of the panel does not exceed a threshold during the rotation. detecting a change in an inclination about a longitudinal axis at a panel of an electronic device, the panel having a display surface; detecting a rotation in an in-plane rotation direction of the panel from a first orientation to a second orientation; and automatically continually redrawing an image displayed at the display surface responsive to the rotation in order to maintain an orientation of the image with respect to a viewer when the change in the inclination of the panel does not exceed a threshold during the rotation.
A fan module for an aircraft turbine engine, this module comprising a fan that comprises a fan shaft and variable pitch fan vanes , and an oil transfer device that is configured to ensure a transfer of oil between a stator and an actuator that is secured in rotation to the fan shaft and that is configured to control the pitch of the fan vanes, this device comprising: - a stator annulus comprising an internal cylindrical surface and internal oil pipes each opening onto said internal cylindrical surface, - a shaft engaged in said stator annulus and movable in rotation about an axis (A) inside this annulus, the shaft comprising an external cylindrical surface extending inside said internal cylindrical surface , the shaft comprising internal oil pipes which each open onto said external cylindrical surface , characterised in that said internal and external cylindrical surfaces define between them an annular space which has a radial thickness of between 10 and 30μm for the formation of a plain bearing (P), this plain bearing extending over the entire axial extent of these surfaces and being devoid of sealing members, and in that two rolling bearings are mounted between the annulus and the shaft , a rolling bearing on each side of the plain bearing (P), each rolling bearing comprising two rings between which rolling elements are located, each rolling bearing being mounted clamped in the radial direction between the annulus and the shaft. - a stator annulus comprising an internal cylindrical surface and internal oil pipes each opening onto said internal cylindrical surface, - a shaft engaged in said stator annulus and movable in rotation about an axis (A) inside this annulus, the shaft comprising an external cylindrical surface extending inside said internal cylindrical surface , the shaft comprising internal oil pipes which each open onto said external cylindrical surface , characterised in that said internal and external cylindrical surfaces define between them an annular space which has a radial thickness of between 10 and 30μm for the formation of a plain bearing (P), this plain bearing extending over the entire axial extent of these surfaces and being devoid of sealing members, and in that two rolling bearings are mounted between the annulus and the shaft , a rolling bearing on each side of the plain bearing (P), each rolling bearing comprising two rings between which rolling elements are located, each rolling bearing being mounted clamped in the radial direction between the annulus and the shaft.
A tool configured to remove non-line-of-sight material from an internal passage of an additively manufactured component; the tool comprises a flexible section and is characterised by a head that extends from the flexible section , an abrasive material on the head; an exciter within the head configured to cause the head to vibrate; and a lubrication passage through the flexible section to excrete a lubricant from the head .
An apparatus, comprising: a chassis having a first end and a second end; a connection panel attached to the first end of the chassis and configured to connect to power cables ; and elongated suppression modules , wherein each suppression module is configured to retain surge suppression devices and insert longitudinally into the second end of the chassis , wherein a back end of each suppression module is configured to slidingly attach to the connection panel and connect to the power cables , characterized in that , the connection panel includes lugs comprising: holes extending into a first side of the lugs and configured to longitudinally receive the power cables ; and connectors extending from a second side of the lugs and configured to attach to the suppression modules . a chassis having a first end and a second end; a connection panel attached to the first end of the chassis and configured to connect to power cables ; and elongated suppression modules , wherein each suppression module is configured to retain surge suppression devices and insert longitudinally into the second end of the chassis , wherein a back end of each suppression module is configured to slidingly attach to the connection panel and connect to the power cables , characterized in that , the connection panel includes lugs comprising: holes extending into a first side of the lugs and configured to longitudinally receive the power cables ; and connectors extending from a second side of the lugs and configured to attach to the suppression modules . holes extending into a first side of the lugs and configured to longitudinally receive the power cables ; and connectors extending from a second side of the lugs and configured to attach to the suppression modules .
A bait fish having a bait drive unit , comprising: > an energy storage device , ➢ an electromotive drive device , ➢ a shaft drivable via the electromotive drive device , > wherein the shaft is curved such that when projected in a plane, the curvature of the shaft does not undergo a change of sign, > wherein the electromotive drive device is mounted in a rotationally fixed manner in the body of the bait fish , ➢ wherein the body of the bait fish consists of an elastic material at least in the region in which the shaft drivable by the electromotive drive device is guided in the bait fish , ➢ wherein the elastic material has a greater bending elasticity than the shaft , and ➢ wherein the drivable shaft is guided in the bait fish in such a way that a movement of the shaft guided in the bait fish is transmitted to the elastic material, characterized in ➢ that the drivable shaft is rotatably guided in a channel of the elastic body of the bait fish . > an energy storage device , ➢ an electromotive drive device , ➢ a shaft drivable via the electromotive drive device , > wherein the shaft is curved such that when projected in a plane, the curvature of the shaft does not undergo a change of sign, > wherein the electromotive drive device is mounted in a rotationally fixed manner in the body of the bait fish , ➢ wherein the body of the bait fish consists of an elastic material at least in the region in which the shaft drivable by the electromotive drive device is guided in the bait fish , ➢ wherein the elastic material has a greater bending elasticity than the shaft , and ➢ wherein the drivable shaft is guided in the bait fish in such a way that a movement of the shaft guided in the bait fish is transmitted to the elastic material, characterized in ➢ that the drivable shaft is rotatably guided in a channel of the elastic body of the bait fish .