mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a display device configured to output an image; a parallax optical element configured to provide a light corresponding to the image output from the display device , to an eyebox of a user ; and a processor configured to adjust a position offset parameter among parameters of the parallax optical element based on a change of a look down angle, LDA, between the eyebox and a virtual image plane formed by the display device and the parallax optical element , wherein the position offset parameter represents relative positions between the parallax optical element and the display device , wherein the processor is configured to track the change of the LDA as corresponding to an angle at which a magnifying mirror that magnifies an image ray output from a display panel in the display device is rotated by a motor and wherein the processor is further configured to obtain the position offset parameter based on an LDA model representing a linear relationship between the LDA and the position offset parameter . a display device configured to output an image; a parallax optical element configured to provide a light corresponding to the image output from the display device , to an eyebox of a user ; and a processor configured to adjust a position offset parameter among parameters of the parallax optical element based on a change of a look down angle, LDA, between the eyebox and a virtual image plane formed by the display device and the parallax optical element , wherein the position offset parameter represents relative positions between the parallax optical element and the display device , wherein the processor is configured to track the change of the LDA as corresponding to an angle at which a magnifying mirror that magnifies an image ray output from a display panel in the display device is rotated by a motor and wherein the processor is further configured to obtain the position offset parameter based on an LDA model representing a linear relationship between the LDA and the position offset parameter .
A wall tap comprising: • a piston , which is fixable to a wall installation for the water inlet ; • a spout , which is fixable to the piston at one end of the spout where the water inlet , in use, is housed; • a solenoid valve ; • a proximity sensor ; • a battery ; • a microcontroller connected to the proximity sensor ; • a cover ; wherein the solenoid valve and the battery are located in the spout ; wherein the battery is located at another end of the spout , which is closed by the cover ; characterised in that it comprises the proximity sensor and the microcontroller in an escutcheon of the wall tap. • a piston , which is fixable to a wall installation for the water inlet ; • a spout , which is fixable to the piston at one end of the spout where the water inlet , in use, is housed; • a solenoid valve ; • a proximity sensor ; • a battery ; • a microcontroller connected to the proximity sensor ; • a cover ; wherein the solenoid valve and the battery are located in the spout ; wherein the battery is located at another end of the spout , which is closed by the cover ; characterised in that it comprises the proximity sensor and the microcontroller in an escutcheon of the wall tap.
A paging message transmission method, comprising: determining indication information comprised in a first paging message, wherein the indication information indicates whether a second paging message exists ; sending the first paging message comprising the indication information, wherein the first paging message is comprised in a first transport block; and generating and sending the second paging message if the indication information indicates that the second paging message exists, wherein the second paging message is comprised in a second transport block, and the second transport block and the first transport block are different transport blocks that are separately transmitted. determining indication information comprised in a first paging message, wherein the indication information indicates whether a second paging message exists ; sending the first paging message comprising the indication information, wherein the first paging message is comprised in a first transport block; and generating and sending the second paging message if the indication information indicates that the second paging message exists, wherein the second paging message is comprised in a second transport block, and the second transport block and the first transport block are different transport blocks that are separately transmitted.
Method for generating a training data set for training an artificial intelligence module, AI module , comprising the steps of: - providing an image sequence in which the surroundings of a robot are recorded, - determining at least one trajectory (14a-14e) which is able to be placed in the recorded surroundings of the robot, - generating at least one future image sequence which ranges over a period of time (t0+n) in the future with regard to a sequence end time (t0) and, based on the at least one determined trajectory (14a-14e), comprises a prediction of images in the event that the determined trajectory (14a-14e) were followed during the period of time (t0+n) in the future, - assessing at least one section of the determined trajectory (14a-14e) contained in the generated image sequence as positive when a movement predicted by following the trajectory (14a-14e) corresponds to a valid movement situation, or as negative when the movement predicted by following the trajectory (14a-14e) corresponds to an invalid movement situation, and - combining the generated future image sequence with the assessment of the trajectory (14a-14e) assigned to this generated future image sequence, for generating a training data set for the AI module . - providing an image sequence in which the surroundings of a robot are recorded, - determining at least one trajectory (14a-14e) which is able to be placed in the recorded surroundings of the robot, - generating at least one future image sequence which ranges over a period of time (t0+n) in the future with regard to a sequence end time (t0) and, based on the at least one determined trajectory (14a-14e), comprises a prediction of images in the event that the determined trajectory (14a-14e) were followed during the period of time (t0+n) in the future, - assessing at least one section of the determined trajectory (14a-14e) contained in the generated image sequence as positive when a movement predicted by following the trajectory (14a-14e) corresponds to a valid movement situation, or as negative when the movement predicted by following the trajectory (14a-14e) corresponds to an invalid movement situation, and - combining the generated future image sequence with the assessment of the trajectory (14a-14e) assigned to this generated future image sequence, for generating a training data set for the AI module .
A retrofit LED lighting device for connection to a ballast , wherein said ballast is arranged to be connected to a mains voltage and arranged to provide for a ballast current, wherein said LED lighting device is arranged to detect a dip in said mains voltage , said retrofit LED lighting device comprising: - at least one LED for emitting light; - a rectifier arranged for rectifying said ballast current and for providing a lamp current to said at least one LED ; - a zero current detector arranged for detecting a zero value of said lamp current or of said ballast current; - a shunt switch for shunting said at least one LED such that said lamp current bypasses said at least one LED ; - a signal generator coupled to said zero current detector , characterised - in that said signal generator is arranged for outputting a monotonic wave form signal starting from a base level , wherein said signal generator is arranged to reset said outputted monotonic waveform signal from a reset level to said base level upon a detected zero value by said zero current detector ; and - by a control unit arranged for determining a dip in said mains voltage by determining that said outputted wave form signal crosses a voltage dip threshold after having passed said reset level . - at least one LED for emitting light; - a rectifier arranged for rectifying said ballast current and for providing a lamp current to said at least one LED ; - a zero current detector arranged for detecting a zero value of said lamp current or of said ballast current; - a shunt switch for shunting said at least one LED such that said lamp current bypasses said at least one LED ; - a signal generator coupled to said zero current detector , - in that said signal generator is arranged for outputting a monotonic wave form signal starting from a base level , wherein said signal generator is arranged to reset said outputted monotonic waveform signal from a reset level to said base level upon a detected zero value by said zero current detector ; and - by a control unit arranged for determining a dip in said mains voltage by determining that said outputted wave form signal crosses a voltage dip threshold after having passed said reset level .
Roof console for a vehicle having at least one touch-slide operating element which is configured to control functional elements of the vehicle, characterized in that the touch-slide operating element is configured such that a swiping movement over a defined length l2 and a pause of the finger after the swiping movement triggers an opening or closing movement of the functional element of the vehicle which lasts until the finger is lifted off.
An electric motor, having a stator and a rotor arranged rotatably relative to the stator, wherein the rotor has an active region, for generating torque upon interaction of the active region with the magnetic field generated by the stator, wherein the active region has electrically energisable printed conductors of a multilayer printed circuit board , i.e. a multiple-layer printed circuit board , wherein a rotor winding which is embodied as printed conductors of a printed circuit board is formed on the printed circuit board , wherein the printed circuit board is connected in rotation-resistant manner to the rotor, characterised in that the stator has two opposing stator cores , the printed circuit board being arranged axially between the two stator cores , and in that electric power can be supplied to - the active region, - the rotor winding and/or - an electronic circuit which has electronic components which are fitted on the printed circuit board , via an inductive coupling which consists of a primary winding and a secondary winding , wherein the rotor is connected to the secondary winding , which is coupled inductively to the primary winding , which is connected in rotation-resistant manner to the stator, wherein the secondary winding is axially spaced apart from the printed circuit board which is arranged axially between the two stator cores , wherein the secondary winding and primary winding are embodied as ring windings, the winding axes of which are oriented parallel to the rotor axis. - the active region, - the rotor winding and/or - an electronic circuit which has electronic components which are fitted on the printed circuit board ,
A method performed by a master eNB, MeNB, in a wireless communication system, the method comprising: transmitting (S1400) a secondary eNB, SeNB, addition request message including a closed subscriber group, CSG, membership status of a user equipment, UE, to a SeNB , wherein the SeNB is a home eNB, HeNB; receiving (S1401) a SeNB addition request acknowledge message from the SeNB as a response to the SeNB addition request message; transmitting (S1410) a CSG identifier, ID, of the SeNB and the CSG membership status of the UE to a mobility management entity, MME; receiving (S1440) a verified CSG membership status of the UE from the MME; and transmitting (S1450) the verified CSG membership status of the UE to the SeNB, wherein the UE is connected to both the MeNB and the SeNB in dual connectivity. transmitting (S1400) a secondary eNB, SeNB, addition request message including a closed subscriber group, CSG, membership status of a user equipment, UE, to a SeNB , wherein the SeNB is a home eNB, HeNB; receiving (S1401) a SeNB addition request acknowledge message from the SeNB as a response to the SeNB addition request message; transmitting (S1410) a CSG identifier, ID, of the SeNB and the CSG membership status of the UE to a mobility management entity, MME; receiving (S1440) a verified CSG membership status of the UE from the MME; and transmitting (S1450) the verified CSG membership status of the UE to the SeNB, wherein the UE is connected to both the MeNB and the SeNB in dual connectivity.
A composition comprising a compound represented by the following formula: wherein ring A or the benzene ring is optionally further substituted; Y 1 and Y 2 are joined to form a bond or -O-; and R 1 is a hydrogen atom, an optionally substituted hydrocarbon group or an optionally substituted heterocyclic group; or a salt thereof as an active ingredient, for use as an antifungal medicament. ring A or the benzene ring is optionally further substituted; Y 1 and Y 2 are joined to form a bond or -O-; and R 1 is a hydrogen atom, an optionally substituted hydrocarbon group or an optionally substituted heterocyclic group;
A sensor apparatus , comprising: a channel structure (102-1) including an inlet , an outlet , and an inner surface defining a fluid conduit extending from the inlet to the outlet through an interior of the channel structure, the channel structure configured to couple with an external element , such that the channel structure is configured to: receive a fluid drawn through the external element at the inlet, the fluid at least partially drawn through the external element from an ambient environment , and direct the fluid through the fluid conduit; and a sensor in hydrodynamic contact with the fluid conduit, the sensor configured to generate sensor data indicating a flow rate of the fluid through the fluid conduit based on monitoring a variation in a pressure at a location in hydrodynamic contact with the fluid conduit and in relation to an ambient pressure of the ambient environment, wherein the sensor is incorporated into the inner surface defining the fluid conduit, such that a fluid conduit-proximate surface of the sensor is substantially coplanar with the inner surface. a channel structure (102-1) including an inlet , an outlet , and an inner surface defining a fluid conduit extending from the inlet to the outlet through an interior of the channel structure, the channel structure configured to couple with an external element , such that the channel structure is configured to: receive a fluid drawn through the external element at the inlet, the fluid at least partially drawn through the external element from an ambient environment , and direct the fluid through the fluid conduit; and receive a fluid drawn through the external element at the inlet, the fluid at least partially drawn through the external element from an ambient environment , and direct the fluid through the fluid conduit; and a sensor in hydrodynamic contact with the fluid conduit, the sensor configured to generate sensor data indicating a flow rate of the fluid through the fluid conduit based on monitoring a variation in a pressure at a location in hydrodynamic contact with the fluid conduit and in relation to an ambient pressure of the ambient environment, wherein the sensor is incorporated into the inner surface defining the fluid conduit, such that a fluid conduit-proximate surface of the sensor is substantially coplanar with the inner surface.
A robot control device comprising: an obtaining unit configured to obtain a captured image from an image sensor (S) configured to capture an image of a workpiece group (WG) to be handled by a robot (RB); a simulation unit configured to execute simulation of operation of the robot (RB); and a control unit configured to perform control such that an image captured by the image sensor (S) is obtained if, in the simulation, the robot (RB) is retracted from at least one image capture forbidden space , in which an image is potentially captured with the workpiece group (WG) and the robot (RB) overlapping each other, the image capture forbidden space being a space set based on either or both a first space , which is a visual field range of the image sensor (S), and at least one columnar second space , which is obtained by taking a workpiece region including the workpiece group (WG) or each of a plurality of divided regions into which the workpiece region is divided, as a bottom area, and extending the bottom area to the position of the image sensor (S). an obtaining unit configured to obtain a captured image from an image sensor (S) configured to capture an image of a workpiece group (WG) to be handled by a robot (RB); a simulation unit configured to execute simulation of operation of the robot (RB); and a control unit configured to perform control such that an image captured by the image sensor (S) is obtained if, in the simulation, the robot (RB) is retracted from at least one image capture forbidden space , in which an image is potentially captured with the workpiece group (WG) and the robot (RB) overlapping each other, the image capture forbidden space being a space set based on either or both a first space , which is a visual field range of the image sensor (S), and at least one columnar second space , which is obtained by taking a workpiece region including the workpiece group (WG) or each of a plurality of divided regions into which the workpiece region is divided, as a bottom area, and extending the bottom area to the position of the image sensor (S).
Compound of the formula (Ia) in which R 1 represents (C 1 -C 4 ) -alkyl, R 12 represents (C 1 -C 4 ) -cyanoalkyl or (C 3 -C 6 )-cycloalkyl which is optionally monosubstituted by cyano, R 13 represents hydrogen, R 4 , R 5 independently of one another represent (C 1 -C 4 ) -alkyl, R 6 represents (C 1 -C 4 )-haloalkyl and n represents 2. R 1 represents (C 1 -C 4 ) -alkyl, R 12 represents (C 1 -C 4 ) -cyanoalkyl or (C 3 -C 6 )-cycloalkyl which is optionally monosubstituted by cyano, R 13 represents hydrogen, R 4 , R 5 independently of one another represent (C 1 -C 4 ) -alkyl, R 6 represents (C 1 -C 4 )-haloalkyl and n represents 2.
A method of a User Equipment, in the following also referred to as UE, comprising: the UE receives a grant on a first interface wherein the grant indicates resources for transmitting scheduling information and resources for data transmission on a second interface ; the UE transmits a first scheduling information on the second interface in a first specific timing interval ; and the UE transmits a second scheduling information on the second interface in a second specific timing interval , wherein a timing difference between the second specific timing interval and the first specific timing interval is indicated by the grant, characterized in that the first scheduling information indicates a first timing offset between the first scheduling information transmission and the data transmission, and the second scheduling information indicates a second timing offset between the second scheduling information transmission and the data transmission, and the first timing offset is different from the second timing offset, wherein the first scheduling information has different content as the second scheduling information, wherein the second timing offset is zero, and wherein resources for transmission of scheduling information are multiplexed with resources for data transmission in frequency domain. the UE receives a grant on a first interface wherein the grant indicates resources for transmitting scheduling information and resources for data transmission on a second interface ; the UE transmits a first scheduling information on the second interface in a first specific timing interval ; and the UE transmits a second scheduling information on the second interface in a second specific timing interval , wherein a timing difference between the second specific timing interval and the first specific timing interval is indicated by the grant, characterized in that the first scheduling information indicates a first timing offset between the first scheduling information transmission and the data transmission, and the second scheduling information indicates a second timing offset between the second scheduling information transmission and the data transmission, and the first timing offset is different from the second timing offset, wherein the first scheduling information has different content as the second scheduling information, wherein the second timing offset is zero, and wherein resources for transmission of scheduling information are multiplexed with resources for data transmission in frequency domain.
A system for determining bale location and orientation comprising: a mobile baling mechanism operable to create a bale of agricultural product and place the bale on a ground surface; and one or more computing devices configured to automatically determine a location and an orientation of the bale on the ground surface; characterized in that the one or more computing devices are configured to determine the orientation of the bale as a position of a horizontal axis of the bale about a vertical axis of the bale, as a pitch and a roll of the bale. a mobile baling mechanism operable to create a bale of agricultural product and place the bale on a ground surface; and one or more computing devices configured to automatically determine a location and an orientation of the bale on the ground surface; characterized in that the one or more computing devices are configured to determine the orientation of the bale as a position of a horizontal axis of the bale about a vertical axis of the bale, as a pitch and a roll of the bale.
A system comprising: a control module ; and a plurality of nodes operatively connected to the control module, wherein each of the nodes is configured to: monitor itself for a metric; receive a pulse from a sequentially previous node in the plurality of nodes, except in the case of a first one of the nodes which does not have a sequentially previous one of the nodes; and characterized in that each of the nodes is further configured to issue a pulse having a duration equal to a sum of a duration of the pulse received from the sequentially previous node, if there is a sequentially previous node, plus a component that is proportional to the metric monitored at the node; and wherein a sequentially final one of the nodes issues a pulse that is a concatenation of the pulses of all of the nodes by virtue of having a pulse length that is equal to the duration of the components proportional to the metric monitored of all the nodes, wherein the control module is configured to simultaneously issue a start pulse from the control module to each of the nodes so that all nodes sample their respective currents at the same time. a control module ; and a plurality of nodes operatively connected to the control module, wherein each of the nodes is configured to: monitor itself for a metric; receive a pulse from a sequentially previous node in the plurality of nodes, except in the case of a first one of the nodes which does not have a sequentially previous one of the nodes; and characterized in that each of the nodes is further configured to issue a pulse having a duration equal to a sum of a duration of the pulse received from the sequentially previous node, if there is a sequentially previous node, plus a component that is proportional to the metric monitored at the node; and monitor itself for a metric; receive a pulse from a sequentially previous node in the plurality of nodes, except in the case of a first one of the nodes which does not have a sequentially previous one of the nodes; and characterized in that each of the nodes is further configured to issue a pulse having a duration equal to a sum of a duration of the pulse received from the sequentially previous node, if there is a sequentially previous node, plus a component that is proportional to the metric monitored at the node; and