mhurhangee/ep-ind-claims huggingface dataset:
A station in a non-AP MLD in a wireless local area network, WLAN, comprising: a processor, configured to generate a probe request frame, wherein the probe request frame is used to request a second access point, AP, to feed back a communication parameter that is of an AP multi-link device, MLD, and that is related to the second AP, wherein the communication parameter requested by the probe request comprises: a communication parameter of an AP MLD in which another AP belonging to a same multiple basic service set identifier, MBSSID, set as the second AP is located, the second AP is a transmitted basic service set identifier, transmitted BSSID, AP, and the communication parameter of the AP MLD is communication parameters of a plurality of links supported by the AP MLD, wherein the probe request frame carries, for each AP of the AP MLD, an identifier list of an information element, to request content of an information element of each AP in the AP MLD, wherein the information element is partial information of the communication parameter of the AP in the AP MLD; and a transceiver, configured to send the probe request frame to the second AP. a processor, configured to generate a probe request frame, wherein the probe request frame is used to request a second access point, AP, to feed back a communication parameter that is of an AP multi-link device, MLD, and that is related to the second AP, wherein the communication parameter requested by the probe request comprises: a communication parameter of an AP MLD in which another AP belonging to a same multiple basic service set identifier, MBSSID, set as the second AP is located, the second AP is a transmitted basic service set identifier, transmitted BSSID, AP, and the communication parameter of the AP MLD is communication parameters of a plurality of links supported by the AP MLD, wherein the probe request frame carries, for each AP of the AP MLD, an identifier list of an information element, to request content of an information element of each AP in the AP MLD, wherein the information element is partial information of the communication parameter of the AP in the AP MLD; and a transceiver, configured to send the probe request frame to the second AP.
A hinge for articulating a temple to a front of a frame for eyeglasses, the hinge comprising two half-shells (11, 12) which are closed onto each other and which comprise: - a fixing portion for engaging, at an end part, one of either an eyeglass front or a temple, characterized in that the half-shells further comprise - a first seat, defined inside said two half-shells (11, 12) closed onto each other, for a pivoting body which is integral with the other one of either said front or said temple, - a second seat, contiguous to said first seat, to accommodate an element in the form of a braking pad for contrasting the rotation of said pivoting body. - a fixing portion for engaging, at an end part, one of either an eyeglass front or a temple, - a first seat, defined inside said two half-shells (11, 12) closed onto each other, for a pivoting body which is integral with the other one of either said front or said temple, - a second seat, contiguous to said first seat, to accommodate an element in the form of a braking pad for contrasting the rotation of said pivoting body.
A method for receiving at least one time division duplex, TDD, uplink, UL, downlink, /downlink, DL, configuration applicable to at least one frame by a user equipment, UE, in a wireless communication system, the method comprising: receiving, by the UE, a system information block, SIB, from a base station, BS, the SIB including a first TDD UL/DL configuration; monitoring, by the UE, a physical downlink control channel, PDCCH, on at least one DL subframe included in a first activity period of a discontinuous reception, DRX, cycle, the at least one DL subframe being indicated in the first TDD UL/DL configuration; receiving, by the UE, information about at least one second TDD UL/DL configuration on the monitored PDCCH; and applying, by the UE, the at least one second TDD UL/DL configuration to at least one first frame based on the received information, wherein the PDCCH is monitored based on an identifier of the UE, and wherein the first activity period is repeated periodically based on periodicity information for monitoring the PDCCH. receiving, by the UE, a system information block, SIB, from a base station, BS, the SIB including a first TDD UL/DL configuration; monitoring, by the UE, a physical downlink control channel, PDCCH, on at least one DL subframe included in a first activity period of a discontinuous reception, DRX, cycle, the at least one DL subframe being indicated in the first TDD UL/DL configuration; receiving, by the UE, information about at least one second TDD UL/DL configuration on the monitored PDCCH; and applying, by the UE, the at least one second TDD UL/DL configuration to at least one first frame based on the received information, wherein the PDCCH is monitored based on an identifier of the UE, and wherein the first activity period is repeated periodically based on periodicity information for monitoring the PDCCH.
Catalyst for the oxidation of ammonia, with a refractory support phase and a catalytically active single phase oxide, characterized in that it comprises stable, single phase oxides, based on a metal doped yttrium ortho-cobaltate oxide system, with the general formula YCo 1-X M X O 3, where X has values between 1 > X > 0, and M is iron, chromium, vanadium, titanium, aluminium or an alkaline earth metal, or in that the single phase oxide has the general formula YCo 1-X Mn X O 3 where 0.5 > X > 0.
A deflection catheter comprising: a catheter shaft having an elongated proximal section and a distal deflection section having a proximal end, the catheter shaft having an outer tubular member with a first center lumen; an inner tubular member having a second center lumen, the inner tubular member extending through the first center lumen of the outer tubular member; and at least one puller wire extending through the second center lumen configured to deflect the distal deflection section, wherein the inner tubular member is afforded longitudinal movement relative to the outer tubular member to enable an operator to adjust location of the proximal end along the length of the catheter shaft and set the deflection curvature of the distal deflection section, wherein the outer tubular member is able to adopt more than one deflection curvature, the inner tubular member has a lesser flexibility and the outer tubular member has a greater flexibility so as to define the proximal end of the distal deflection section, and the outer tubular member has a coil construction. a catheter shaft having an elongated proximal section and a distal deflection section having a proximal end, the catheter shaft having an outer tubular member with a first center lumen; an inner tubular member having a second center lumen, the inner tubular member extending through the first center lumen of the outer tubular member; and at least one puller wire extending through the second center lumen configured to deflect the distal deflection section, wherein the inner tubular member is afforded longitudinal movement relative to the outer tubular member to enable an operator to adjust location of the proximal end along the length of the catheter shaft and set the deflection curvature of the distal deflection section, wherein the outer tubular member is able to adopt more than one deflection curvature, the inner tubular member has a lesser flexibility and the outer tubular member has a greater flexibility so as to define the proximal end of the distal deflection section, and the outer tubular member has a coil construction.
An electrode manufacturing method comprising: a step of coating an active material layer onto a surface of a collector excluding a non-coating area to form a coating area; a step of drying the coated active material layer; a compression step of forming a high density area which is a coating area in a center portion of the electrode, by increasing a density of the dried active material layer, characterized in that, in the compression step, a low density area having a lower density than the high density area is formed in a strip-shaped coating area adjacent to the non-coating area of the active material layer, and the low density area is not pressed in the compression step. a step of coating an active material layer onto a surface of a collector excluding a non-coating area to form a coating area; a step of drying the coated active material layer; a compression step of forming a high density area which is a coating area in a center portion of the electrode, by increasing a density of the dried active material layer, characterized in that, in the compression step, a low density area having a lower density than the high density area is formed in a strip-shaped coating area adjacent to the non-coating area of the active material layer, and the low density area is not pressed in the compression step.
A wiper module assembly for a vehicle liftgate comprising: an inner panel of a vehicle liftgate having a spoiler formed as one piece part of the inner panel; an outer panel of the liftgate connected to the inner panel; a cavity formed as part of the spoiler; a carrier defining a removable module connectable to the cavity of the vehicle liftgate; a motor connected to the carrier and having a drive assembly driven by the motor; a spindle rotatably extending from and driven by the drive assembly; and a wiper connected to the spindle and configured to move between a retracted position and an extended position. an inner panel of a vehicle liftgate having a spoiler formed as one piece part of the inner panel; an outer panel of the liftgate connected to the inner panel; a cavity formed as part of the spoiler; a carrier defining a removable module connectable to the cavity of the vehicle liftgate; a motor connected to the carrier and having a drive assembly driven by the motor; a spindle rotatably extending from and driven by the drive assembly; and a wiper connected to the spindle and configured to move between a retracted position and an extended position.
A method, performed by a terminal, for detecting spectrum resource, said method comprising: receiving a capability reporting instruction sent by a base station S101); sending a capability report of a terminal to the base station according to the capability reporting instruction, wherein the capability report comprises information about whether the terminal has a spectrum sensing capability, wherein the spectrum sensing capability refers to that the terminal senses whether a certain frequency band is occupied by another communication system; receiving a spectrum sensing configuration command sent by the base station according to the capability report of the terminal; performing spectrum sensing to obtain a sensing result according to the spectrum sensing configuration command and receiving a sensing task reporting command transmitted by the base station; and sending the sensing result to the base station according to the sensing task reporting command transmitted by the base station. receiving a capability reporting instruction sent by a base station S101); sending a capability report of a terminal to the base station according to the capability reporting instruction, wherein the capability report comprises information about whether the terminal has a spectrum sensing capability, wherein the spectrum sensing capability refers to that the terminal senses whether a certain frequency band is occupied by another communication system; receiving a spectrum sensing configuration command sent by the base station according to the capability report of the terminal; performing spectrum sensing to obtain a sensing result according to the spectrum sensing configuration command and receiving a sensing task reporting command transmitted by the base station; and sending the sensing result to the base station according to the sensing task reporting command transmitted by the base station.
Alarm device for detecting and communicating environment- and/or device-specific states, having a communication interface for wirelessly transmitting information to one or more destination addresses, the communication interface being in the form of a WLAN interface and/or a mobile radio interface, the alarm device being in the form of a smoke alarm and/or a fire alarm in a housing, the communication interface being designed, in terms of programming and/or circuitry, to establish and/or maintain access to the public Internet in order to transmit the information to one or more destination addresses, the alarm device receiving its own IP address and/or an IP address assigned to the alarm device upon connection to the public Internet, characterized in that the alarm device has a configuration interface for transmitting transmission modalities, settings for connection set-up and for encryption being able to be set using the configuration interface in the alarm device.
A dispensing system (10, 310) for a container (15, 315), the system comprising a cap (20, 320) and a storage cartridge (30, 330) for containing a consumable or other item and being attached or attachable to the cap (20, 220), the cartridge (30, 330) comprising a breachable closure member (40, 340) and the dispensing system (10, 310) comprising breaching means (35, 335) for breaching the closure member (40, 340), in which the breaching means (35, 335) are activated upon rotation of the cap (20, 320) whereby to dispense the product into a container, characterised in that the breaching means (35, 335) are contained in the cartridge (30, 330).
A VCSEL device comprising: a VCSEL, the VCSEL comprising: a light-generating quantum well active region; a first mirror layer arranged on a first side of the active region and configured to emit at least 50% of light generated by the active region; a second mirror layer arranged on a second side of the active region and configured to emit no more than 50% of light generated by the active region; a metal contact layer disposed below the second mirror layer and patterned with an opening aligned with a light emission direction of the VCSEL, the opening sized and configured to receive light emitted from the second mirror layer; and a dielectric layer deposited in the opening of the metal contact layer; and a photodiode arranged between the metal contact layer and a submount, the photodiode being configured to receive light emitted from the second mirror layer; wherein the VCSEL is mounted directly on the photodiode. a light-generating quantum well active region; a first mirror layer arranged on a first side of the active region and configured to emit at least 50% of light generated by the active region; a second mirror layer arranged on a second side of the active region and configured to emit no more than 50% of light generated by the active region; a metal contact layer disposed below the second mirror layer and patterned with an opening aligned with a light emission direction of the VCSEL, the opening sized and configured to receive light emitted from the second mirror layer; and a dielectric layer deposited in the opening of the metal contact layer; and a photodiode arranged between the metal contact layer and a submount, the photodiode being configured to receive light emitted from the second mirror layer; wherein the VCSEL is mounted directly on the photodiode.
A printed circuit board, comprising: a laminated core comprising at least an internal conductive layer (L 2, L 5); a build-up layer (212, 214) on the laminated core, the build-up layer (212, 214) comprising a top conductive layer (L 1, L 6); a plurality of microvias (220a, 220b, 330a, 330b, 330c, 430a, 430b) in the build-up layer (212, 214) to electrically connect the top conductive layer (L 1, L 6) with the internal conductive layer (L 2, L 5); a power net in the top conductive layer (L 1), the power net comprising a plurality of power ball pads (302, 302a, 302b, 302c, 302d, 302e, 302f, 302g, 302h, 302i, 302j); and a ground net being disposed in close proximity to the power net, wherein the ground net comprises a plurality of ground ball pads (402, 402a, 402b, 402c, 402d, 402e, 402f, 402g), wherein the plurality of power ball pads (302, 302a, 302b, 302c, 302d, 302e, 302f, 302g, 302h, 302i, 302j) and the plurality of ground ball pads (402, 402a, 402b, 402c, 402d, 402e, 402f, 402g) are arranged in an array with a fixed ball pad pitch; characterized in that the plurality of power ball pads (302, 302a, 302b, 302c, 302d, 302e, 302f, 302g, 302h, 302i, 302j) is arranged in cascade in a ladder form and the plurality of ground ball pads (402, 402a, 402b, 402c, 402d, 402e, 402f, 402g) is arranged in cascade in a ladder form. a laminated core comprising at least an internal conductive layer (L 2, L 5); a build-up layer (212, 214) on the laminated core, the build-up layer (212, 214) comprising a top conductive layer (L 1, L 6); a plurality of microvias (220a, 220b, 330a, 330b, 330c, 430a, 430b) in the build-up layer (212, 214) to electrically connect the top conductive layer (L 1, L 6) with the internal conductive layer (L 2, L 5); a power net in the top conductive layer (L 1), the power net comprising a plurality of power ball pads (302, 302a, 302b, 302c, 302d, 302e, 302f, 302g, 302h, 302i, 302j); and a ground net being disposed in close proximity to the power net, wherein the ground net comprises a plurality of ground ball pads (402, 402a, 402b, 402c, 402d, 402e, 402f, 402g), wherein the plurality of power ball pads (302, 302a, 302b, 302c, 302d, 302e, 302f, 302g, 302h, 302i, 302j) and the plurality of ground ball pads (402, 402a, 402b, 402c, 402d, 402e, 402f, 402g) are arranged in an array with a fixed ball pad pitch; characterized in that the plurality of power ball pads (302, 302a, 302b, 302c, 302d, 302e, 302f, 302g, 302h, 302i, 302j) is arranged in cascade in a ladder form and the plurality of ground ball pads (402, 402a, 402b, 402c, 402d, 402e, 402f, 402g) is arranged in cascade in a ladder form.
An X-ray apparatus, comprising: an X-ray imaging device, a C-arm for supporting the X-ray imaging device, a controller for controlling the X-ray imaging device and the arm, wherein the controller is adapted to control a first rotational movement of the C-arm, such that the X-ray imaging device is moving along a first path in a forward direction around an object, said first rotational movement being started after a hepatic arterial injection of contrast agent, wherein the X-ray imaging device is adapted to take a first plurality of images of the object during the first rotational movement, wherein the controller is adapted to generate first volume data from the first plurality of images; wherein the controller is adapted to control a second rotational of the C-arm, after a predefinable time after a start of the first rotational movement, said time being set so that contrast agent has dispersed inside the liver up to the small vessels, such that the X-ray imaging device is moving along a second path in a backward direction, said second path being substantially anti-parallel to the first path, wherein the X-ray imaging device is adapted to take a second plurality of images of the object during the second rotational movement, wherein the controller is adapted to generate second volume data from the second plurality of images. an X-ray imaging device, a C-arm for supporting the X-ray imaging device, a controller for controlling the X-ray imaging device and the arm, wherein the controller is adapted to control a first rotational movement of the C-arm, such that the X-ray imaging device is moving along a first path in a forward direction around an object, said first rotational movement being started after a hepatic arterial injection of contrast agent, wherein the X-ray imaging device is adapted to take a first plurality of images of the object during the first rotational movement, wherein the controller is adapted to generate first volume data from the first plurality of images; wherein the controller is adapted to control a second rotational of the C-arm, after a predefinable time after a start of the first rotational movement, said time being set so that contrast agent has dispersed inside the liver up to the small vessels, such that the X-ray imaging device is moving along a second path in a backward direction, said second path being substantially anti-parallel to the first path, wherein the X-ray imaging device is adapted to take a second plurality of images of the object during the second rotational movement, wherein the controller is adapted to generate second volume data from the second plurality of images.
A touch-sensitive display comprising: a substrate; pixel electrodes deposited directly on an insulator; drive electrodes deposited directly on the insulator and interspersed with the pixel electrodes such that the pixel electrodes and the drive electrodes are disposed in the same layer on the insulator; sense electrodes spaced from the drive electrodes and being wide compared to a spacing between the sense electrodes and compared to the drive electrodes so as to shield the touch sensitive display from an external electric field; a display material and a color filter material disposed between the pixel electrodes and the sense electrodes; a black matrix material and a display material disposed between the drive electrodes and the sense electrodes; wherein the drive electrodes and the sense electrodes are configured to detect touches on the touch-sensitive display. a substrate; pixel electrodes deposited directly on an insulator; drive electrodes deposited directly on the insulator and interspersed with the pixel electrodes such that the pixel electrodes and the drive electrodes are disposed in the same layer on the insulator; sense electrodes spaced from the drive electrodes and being wide compared to a spacing between the sense electrodes and compared to the drive electrodes so as to shield the touch sensitive display from an external electric field; a display material and a color filter material disposed between the pixel electrodes and the sense electrodes; a black matrix material and a display material disposed between the drive electrodes and the sense electrodes; wherein the drive electrodes and the sense electrodes are configured to detect touches on the touch-sensitive display.
Multilink hose for the transmission of a fluid, with a plurality of ring-shaped segments which are articulatedly connected to one another and which each has an outer ring portion and an inner ring portion that is inserted in the outer ring portion of a neighbouring segment, - wherein the respective segment has on its outer ring portion two axially protruding brackets which are located diametrically opposite one another and which each have a bearing eye, - wherein the respective segment has on its inner ring portion two radially outwardly protruding pegs which diametrically face away from one another and which each engage in a bearing eye of a bracket of a neighbouring segment, characterised in that the respective segment has an abutment contour on an inner side of its outer ring portion that cooperates with an axial end face of the inner ring portion of a neighbouring segment to limit the angular movability of the segments relative to one another. - wherein the respective segment has on its outer ring portion two axially protruding brackets which are located diametrically opposite one another and which each have a bearing eye, - wherein the respective segment has on its inner ring portion two radially outwardly protruding pegs which diametrically face away from one another and which each engage in a bearing eye of a bracket of a neighbouring segment, characterised in that the respective segment has an abutment contour on an inner side of its outer ring portion that cooperates with an axial end face of the inner ring portion of a neighbouring segment to limit the angular movability of the segments relative to one another.