mhurhangee/patent-ind-claim-en huggingface dataset:
A device comprising: a display , the display comprising: a main area; a first curved area extending from a right side of the main area; and a second curved area extending from a left side of the main area; a sensor configured to detect a state and/or a change in the state of the device; wherein the change in the state of the device comprises a change in an angle of orientation of the device along an axis of rotation about which the device rotates; and a controller configured to control the display to, in response to the change in the angle of orientation of the device being beyond a preset angle to the right side while a first information related to a first application is provided on the first curved area and a second information related to a second application is provided on the main area, move and provide the first information displayed on the first curved area to the second curved area according to the changed state of the device, and maintain the second information displayed on the main area, wherein the first information comprises a user interface provided by the first application. a display , the display comprising: a main area; a first curved area extending from a right side of the main area; and a second curved area extending from a left side of the main area; a main area; a first curved area extending from a right side of the main area; and a second curved area extending from a left side of the main area; a sensor configured to detect a state and/or a change in the state of the device; wherein the change in the state of the device comprises a change in an angle of orientation of the device along an axis of rotation about which the device rotates; and a controller configured to control the display to, in response to the change in the angle of orientation of the device being beyond a preset angle to the right side while a first information related to a first application is provided on the first curved area and a second information related to a second application is provided on the main area, move and provide the first information displayed on the first curved area to the second curved area according to the changed state of the device, and maintain the second information displayed on the main area, wherein the first information comprises a user interface provided by the first application.
A method for a playback device (702; 1402), the method comprising: receiving an audio signal from an audio source; identifying a first audio information contained in the audio signal to be played by a first group of playback devices (704; 1404, 1406) connected to the playback device by a star network ; identifying a second audio information contained in the audio signal to be played by a second group of playback devices (706; 1410, 1412) connected to the playback device by a mesh network ; assigning one or more first timestamps to the first audio information, wherein the one or more first timestamps indicate a first time at which audio is to be played by the first group of playback devices; assigning a second timestamp to the second audio information, wherein the second timestamp indicates a second time at which audio is to be played by the second group of playback devices, wherein the second timestamp is different from the one or more first timestamps; and sending the first audio information with the one or more first timestamps to the first group of playback devices, and sending the second audio information with the second timestamp to the second group of playback devices. receiving an audio signal from an audio source; identifying a first audio information contained in the audio signal to be played by a first group of playback devices (704; 1404, 1406) connected to the playback device by a star network ; identifying a second audio information contained in the audio signal to be played by a second group of playback devices (706; 1410, 1412) connected to the playback device by a mesh network ; assigning one or more first timestamps to the first audio information, wherein the one or more first timestamps indicate a first time at which audio is to be played by the first group of playback devices; assigning a second timestamp to the second audio information, wherein the second timestamp indicates a second time at which audio is to be played by the second group of playback devices, wherein the second timestamp is different from the one or more first timestamps; and sending the first audio information with the one or more first timestamps to the first group of playback devices, and sending the second audio information with the second timestamp to the second group of playback devices.
A system for use in a subsea well operation, comprising: a subsea landing string system comprising a plurality of manifold mounting sites on the landing string and a plurality of manifolds for controlling flow of actuating fluid which are mounted at such mounting sites, each manifold comprising a manifold body containing a plurality of solenoids each electrically coupled with a solenoid electrical control line , and each manifold also comprising a plurality of directional control valves selectively controlled via the solenoids , characterised in that the manifolds and solenoids are exposed to environmental fluid surrounding the landing string and in that each solenoid electrical control line is routed through the manifold body and electrically coupled to a solenoid in a region sealed with respect to environmental fluids surrounding the manifold body.
An elongate automotive illumination assembly including: an elongate housing ; at least one light source; an elongate lens having an apex region and a pair of spaced-apart blade portions extending away from the apex region to define a generally V-shaped cross-section with the apex region including an elongate light emitting surface , the blade portions connecting to the elongate housing to define an enclosure; and an elongate light guide for guiding light from the at least one light source to the elongate light emitting surface , the elongate light guide including a body extending away from the light source(s) towards the elongate light emitting surface ; wherein the light guide is housed within the enclosure and between the blades of the lens such that the light emitting surface of the light guide is adjacent to the light emitting surface of the lens ; characterized in that the elongate light guide has a front region and a rear region , wherein the rear region has a generally bulbous shape and a larger sectional thickness than the front region and the elongated light guide includes a plurality of light-scattering particles. an elongate housing ; at least one light source; an elongate lens having an apex region and a pair of spaced-apart blade portions extending away from the apex region to define a generally V-shaped cross-section with the apex region including an elongate light emitting surface , the blade portions connecting to the elongate housing to define an enclosure; and an elongate light guide for guiding light from the at least one light source to the elongate light emitting surface , the elongate light guide including a body extending away from the light source(s) towards the elongate light emitting surface ; wherein the light guide is housed within the enclosure and between the blades of the lens such that the light emitting surface of the light guide is adjacent to the light emitting surface of the lens ; characterized in that the elongate light guide has a front region and a rear region , wherein the rear region has a generally bulbous shape and a larger sectional thickness than the front region and the elongated light guide includes a plurality of light-scattering particles.
A landing gear brace and lock linkage system , the landing gear brace and lock linkage system comprising: a lockable assembly having an upper landing gear brace defining a longitudinal axis and a lower landing gear brace ; the lockable assembly further comprising a linkage having upper and lower lock links , wherein the upper and lower landing gear braces are coupled together via the upper and lower lock links , respectively, and wherein the linkage is lockable in a desired position relative to the upper and lower landing gear braces, the linkage allowing the upper and lower landing gear braces to rotate relative to one another between locked and unlocked positions via coupling pins ; and a downlock actuator , the downlock actuator comprising: an electric motor rigidly mounted to the upper landing gear brace and having a motor output shaft with a rotary axis; an output shaft having a rotary axis, and having a first end portion and a second end portion, the first end portion coupled to the electric motor; and a link having a proximal end pivotally coupled to the second end portion of the output shaft, the link having a distal end coupled to the upper lock link , the link having a longitudinal axis arranged substantially perpendicular to the rotary axis of the output shaft. a lockable assembly having an upper landing gear brace defining a longitudinal axis and a lower landing gear brace ; the lockable assembly further comprising a linkage having upper and lower lock links , wherein the upper and lower landing gear braces are coupled together via the upper and lower lock links , respectively, and wherein the linkage is lockable in a desired position relative to the upper and lower landing gear braces, the linkage allowing the upper and lower landing gear braces to rotate relative to one another between locked and unlocked positions via coupling pins ; and a downlock actuator , the downlock actuator comprising: an electric motor rigidly mounted to the upper landing gear brace and having a motor output shaft with a rotary axis; an output shaft having a rotary axis, and having a first end portion and a second end portion, the first end portion coupled to the electric motor; and a link having a proximal end pivotally coupled to the second end portion of the output shaft, the link having a distal end coupled to the upper lock link , the link having a longitudinal axis arranged substantially perpendicular to the rotary axis of the output shaft. an electric motor rigidly mounted to the upper landing gear brace and having a motor output shaft with a rotary axis; an output shaft having a rotary axis, and having a first end portion and a second end portion, the first end portion coupled to the electric motor; and a link having a proximal end pivotally coupled to the second end portion of the output shaft, the link having a distal end coupled to the upper lock link , the link having a longitudinal axis arranged substantially perpendicular to the rotary axis of the output shaft.
Fitting assembly for a rotating-tilting window or door, with an opening device which comprises an opening arm and a link pivotably connected to the opening arm , wherein the link can be coupled to a wing of the window or of the door at a scissor plate at a first coupling point, and wherein the opening arm at a second coupling device can be coupled to a scissor bearing, which can be fastened to the main frame of the window or of the door, in order to pivotably support the wing on the main frame , wherein two parts of the supporting structure, which comprises the opening device and the scissor bearing, can be fixed relative to each other in a variable manner in different positions in order to adjust the effective length of the opening device , and wherein the two parts are connected to each other by means of at least one adjustable coupling element , wherein one of the said parts is the scissor plate , and the other of the said parts is the link , wherein a plate that can be adjusted relative to the scissor plate is provided between the scissor plate and link , which plate has the pivot bearing of the link and supports the eccentric element which acts between the scissor plate and the pivot bearing, characterized in that the eccentric element is configured such that, at the closing of the wing , it is automatically adjusted in such a way that an incorrect setting of the wing due to a change in the effective length of the opening device will be corrected, that the eccentric element is subjected to force in a spreading manner by a first spring element , that the first spring element has a counter-bearing at the scissor plate , and the second spring element is coupled to a drive rod , which is guided beneath the scissor plate and carries a counter-bearing for this purpose, that, by means of two eccentric cambers diametrically opposed on the circumferential surface , the eccentric element is provided with an eccentric cross-section, such that, in the position of the drive rod prepared for pivoting, the first spring element remains tensioned with the second spring element relaxed, that in the position prepared for tilting the second spring element is tensioned by means of the drive rod , and that the plate , in the tilt open position of the wing, is subjected to force in the direction of the pivot bearing of the link .
A separator for a non-aqueous secondary battery, comprising: a porous substrate; and an adhesive porous layer that is provided on one side or both sides of the porous substrate, and that contains a polyvinylidene fluoride type resin, wherein the polyvinylidene fluoride type resin contains a copolymer A having a melting point of from 130°C to 148°C; wherein the melting point is measured according to the method described in the description, and contains, as monomer components, vinylidene fluoride and a monomer represented by the following Formula : wherein, in Formula , each of R 1 , R 2 , and R 3 independently represents a hydrogen atom, a halogen atom, a carboxyl group or a derivative thereof, or a C 1-5 alkyl group; X represents a single bond, a C 1-5 alkylene group, or a substituted C 1-5 alkylene group; and Y represents a hydrogen atom, a C 1-5 alkyl group, or a C 1-5 alkyl group that contains at least one hydroxy group. a porous substrate; and an adhesive porous layer that is provided on one side or both sides of the porous substrate, and that contains a polyvinylidene fluoride type resin, wherein the polyvinylidene fluoride type resin contains a copolymer A having a melting point of from 130°C to 148°C; wherein the melting point is measured according to the method described in the description, and contains, as monomer components, vinylidene fluoride and a monomer represented by the following Formula : wherein, in Formula , each of R 1 , R 2 , and R 3 independently represents a hydrogen atom, a halogen atom, a carboxyl group or a derivative thereof, or a C 1-5 alkyl group; X represents a single bond, a C 1-5 alkylene group, or a substituted C 1-5 alkylene group; and Y represents a hydrogen atom, a C 1-5 alkyl group, or a C 1-5 alkyl group that contains at least one hydroxy group.
A stress distribution image processing device comprising: a processing unit , characterized in that the processing unit is configured to : designate (S01) a normalization region ; and normalize (S02) pixels in the normalization region based on stress values in the normalization region to obtain a normalized image, wherein the normalization region is designated (S01) such that it includes a portion of stress equal to or larger than a predetermined threshold value in a stress distribution image of a target object wherein the normalizing (S02) uses a normalization method in which a maximum value and a minimum value of stress values in the normalization region are set to 1 and 0. a processing unit , characterized in that the processing unit is configured to : designate (S01) a normalization region ; and normalize (S02) pixels in the normalization region based on stress values in the normalization region to obtain a normalized image, wherein the normalization region is designated (S01) such that it includes a portion of stress equal to or larger than a predetermined threshold value in a stress distribution image of a target object wherein the normalizing (S02) uses a normalization method in which a maximum value and a minimum value of stress values in the normalization region are set to 1 and 0.
A power cable filler device adapted to bear against a first power core and a second power core in a power cable , wherein the power cable filler device comprises: a first arced wall which defines a portion of a first circle having a first diameter, a second arced wall and a third arced wall , each defining a portion of a second circle having a second diameter which is smaller than the first diameter, which first arced wall has a first end connected to a first end of the second arced wall , and which first arced wall has a second end connected to a first end of the third arced wall , wherein the second arced wall has a second end and the third arced wall has a second end adjacent each other and defining a slit , whereby a chamber is formed between the first arced wall , the second arced wall and the third arced wall , a first partitioning wall in the chamber, extending between the first arced wall and the second arced wall , and a second partitioning wall in the chamber, extending between the first arced wall and the third arced wall , characterised in that the first partitioning wall extends in a first radial direction along its entire extension from the first arced wall to the second arced wall , and in that the second partitioning wall extends in a second radial direction along its entire extension from the first arced wall to the third arced wall , which first radial direction and second radial direction are defined with respect to the radius of the first arced wall . a first arced wall which defines a portion of a first circle having a first diameter, a second arced wall and a third arced wall , each defining a portion of a second circle having a second diameter which is smaller than the first diameter, which first arced wall has a first end connected to a first end of the second arced wall , and which first arced wall has a second end connected to a first end of the third arced wall , wherein the second arced wall has a second end and the third arced wall has a second end adjacent each other and defining a slit , whereby a chamber is formed between the first arced wall , the second arced wall and the third arced wall , a first partitioning wall in the chamber, extending between the first arced wall and the second arced wall , and a second partitioning wall in the chamber, extending between the first arced wall and the third arced wall , characterised in that the first partitioning wall extends in a first radial direction along its entire extension from the first arced wall to the second arced wall , and in that the second partitioning wall extends in a second radial direction along its entire extension from the first arced wall to the third arced wall , which first radial direction and second radial direction are defined with respect to the radius of the first arced wall .
A wireless communication method by a user equipment, UE, comprising: being configured , by a base station, with a configuration of one or more downlink, DL, positioning reference signal, PRS, resource sets, wherein the configuration of one or more DL PRS resource sets is transmitted by the base station upon a request of the UE, and each DL PRS resource set comprises one or more DL PRS resources; and for each DL PRS resource set or each DL PRS resource, being provided with at least one of configuration parameters, wherein the UE is adapted to request the at least one of configuration parameters: a parameter to indicate a time gap between two adjacent repetitions of a DL PRS resource; or a parameter to indicate a number of slots for triggering offset. being configured , by a base station, with a configuration of one or more downlink, DL, positioning reference signal, PRS, resource sets, wherein the configuration of one or more DL PRS resource sets is transmitted by the base station upon a request of the UE, and each DL PRS resource set comprises one or more DL PRS resources; and for each DL PRS resource set or each DL PRS resource, being provided with at least one of configuration parameters, wherein the UE is adapted to request the at least one of configuration parameters: a parameter to indicate a time gap between two adjacent repetitions of a DL PRS resource; or a parameter to indicate a number of slots for triggering offset. a parameter to indicate a time gap between two adjacent repetitions of a DL PRS resource; or a parameter to indicate a number of slots for triggering offset.
A method of reducing undesirable imaging artefacts in an IR detector system, the IR detector system comprising pixels, each pixel including a integration capacitor (Cint) and a sample and hold circuit comprising a sample and hold capacitor (Ch); the method comprising: a) binning together pixels in pixel groups by asserting respective binning control of said pixels, ; characterised by the steps of b) configuring said pixel groups so that when the first pixel in a group is operated a signal is integrated into integration capacitors (Cint 1, Cint 2) of each of the pixels of the group and into the sample and hold capacitor (Ch1) of the first pixel, and will not integrate into sample and hold capacitor(s) (Ch2) of other pixel(s) in the group; c) turning off (closing) the sample and hold circuit of the first pixel in the group to retain the signal on the sample and hold capacitor of the first pixel; d) resetting the integration capacitors; e) configuring the pixel groups so that when the next pixel in the group is operated a signal is integrated into the integration capacitors (Cint 1, Cint 2) of each of the pixels of the group and on the sample and hold capacitor (Ch2) of said next pixel, and will not integrate into sample and hold capacitor(s) (Ch1) of the other pixel(s) in the groups; f) turning off (closing) the sample and hold circuit of said next pixel in the group to retain the signal on the sample and hold capacitor of said next pixel; g) resetting the integration capacitors; and h) repeating steps (e),(f),(g) for the other pixels of the group.. a) binning together pixels in pixel groups by asserting respective binning control of said pixels, ; characterised by the steps of b) configuring said pixel groups so that when the first pixel in a group is operated a signal is integrated into integration capacitors (Cint 1, Cint 2) of each of the pixels of the group and into the sample and hold capacitor (Ch1) of the first pixel, and will not integrate into sample and hold capacitor(s) (Ch2) of other pixel(s) in the group; c) turning off (closing) the sample and hold circuit of the first pixel in the group to retain the signal on the sample and hold capacitor of the first pixel; d) resetting the integration capacitors; e) configuring the pixel groups so that when the next pixel in the group is operated a signal is integrated into the integration capacitors (Cint 1, Cint 2) of each of the pixels of the group and on the sample and hold capacitor (Ch2) of said next pixel, and will not integrate into sample and hold capacitor(s) (Ch1) of the other pixel(s) in the groups; f) turning off (closing) the sample and hold circuit of said next pixel in the group to retain the signal on the sample and hold capacitor of said next pixel; g) resetting the integration capacitors; and h) repeating steps (e),(f),(g) for the other pixels of the group..