mhurhangee/patent-ind-claim-en huggingface dataset:
A method for initiating fingerprint capture in an electronic device having a touch screen with a sensing region , a touch controller , and a fingerprint controller , wherein the electronic device has a fingerprint sensor and a touch sensor integrated in the active area of a display, the method comprising: placing the electronic device in a first power mode, the first power mode being a doze mode, wherein the fingerprint controller is in a low power mode; by the touch controller, scanning for an object proximate to the sensing region; executing a validation mode comprising analyzing a location of a touch in the sensing region; sending a first signal from the touch controller to the host upon detection of a valid touch, the first signal being a first wake up signal; sending a second signal from the host to the fingerprint controller, placing the fingerprint controller in a second power mode, the second power mode being a higher power mode than the first power mode, to initiate fingerprint capture in response to detection of a valid touch; and capturing an image of the fingerprint. placing the electronic device in a first power mode, the first power mode being a doze mode, wherein the fingerprint controller is in a low power mode; by the touch controller, scanning for an object proximate to the sensing region; executing a validation mode comprising analyzing a location of a touch in the sensing region; sending a first signal from the touch controller to the host upon detection of a valid touch, the first signal being a first wake up signal; sending a second signal from the host to the fingerprint controller, placing the fingerprint controller in a second power mode, the second power mode being a higher power mode than the first power mode, to initiate fingerprint capture in response to detection of a valid touch; and capturing an image of the fingerprint.
A method of transmitting, by a user equipment , a scheduling request, SR, in a wireless communication system, the method comprising: receiving (S1510) configuration information related to at least one SR; and transmitting (S1520) the at least one SR based on the configuration information, wherein the at least one SR is based on a plurality of overlapped SRs wherein, for the plurality of SRs being overlapped with uplink control information, UCI, related to at least one of HARQ information or Channel State Information, CSI: UCI bits are transmitted, in which i) a field related to the plurality of SRs and ii) the UCI are combined, wherein the field related to the plurality of SRs represents i) one of the plurality of SRs as positive or ii) all of the plurality of SRs as negative, and wherein, for i) the plurality of SRs including a plurality of positive SRs and ii) one of the plurality of positive SRs being related to a beam failure recovery, BFR: the field related to the plurality of SRs represents the SR related to the BFR as positive. receiving (S1510) configuration information related to at least one SR; and transmitting (S1520) the at least one SR based on the configuration information, wherein the at least one SR is based on a plurality of overlapped SRs wherein, for the plurality of SRs being overlapped with uplink control information, UCI, related to at least one of HARQ information or Channel State Information, CSI: UCI bits are transmitted, in which i) a field related to the plurality of SRs and ii) the UCI are combined, wherein the field related to the plurality of SRs represents i) one of the plurality of SRs as positive or ii) all of the plurality of SRs as negative, and wherein, for i) the plurality of SRs including a plurality of positive SRs and ii) one of the plurality of positive SRs being related to a beam failure recovery, BFR: the field related to the plurality of SRs represents the SR related to the BFR as positive. UCI bits are transmitted, in which i) a field related to the plurality of SRs and ii) the UCI are combined, wherein the field related to the plurality of SRs represents i) one of the plurality of SRs as positive or ii) all of the plurality of SRs as negative, and wherein, for i) the plurality of SRs including a plurality of positive SRs and ii) one of the plurality of positive SRs being related to a beam failure recovery, BFR: the field related to the plurality of SRs represents the SR related to the BFR as positive.
A balloon catheter system for dilating the outflow tract of a sinus cavity comprising: a device comprising: a metallic inner guide member having a proximal end , a distal end , and a lumen extending along a length thereof and terminating at the distal end ; a shaft coupled to a balloon , the shaft having a first lumen along at least a portion thereof containing the metallic inner guide member , the shaft and balloon being slidably mounted over the metallic inner guide member , the shaft having a second lumen operatively coupled to the interior of the balloon ; and a handle disposed along a proximal portion of the metallic inner guide member and coupled to the shaft ; an inflation port disposed at the handle , the inflation port being coupled to the second lumen of the shaft ; an irrigation/aspiration port disposed in the handle , the irrigation/aspiration port communicating with the lumen of the metallic inner guide member ; a least one tracking element disposed on the balloon catheter ; and an inflation device configured to couple with the inflation port . a device comprising: a metallic inner guide member having a proximal end , a distal end , and a lumen extending along a length thereof and terminating at the distal end ; a shaft coupled to a balloon , the shaft having a first lumen along at least a portion thereof containing the metallic inner guide member , the shaft and balloon being slidably mounted over the metallic inner guide member , the shaft having a second lumen operatively coupled to the interior of the balloon ; and a handle disposed along a proximal portion of the metallic inner guide member and coupled to the shaft ; an inflation port disposed at the handle , the inflation port being coupled to the second lumen of the shaft ; an irrigation/aspiration port disposed in the handle , the irrigation/aspiration port communicating with the lumen of the metallic inner guide member ; a least one tracking element disposed on the balloon catheter ; and a metallic inner guide member having a proximal end , a distal end , and a lumen extending along a length thereof and terminating at the distal end ; a shaft coupled to a balloon , the shaft having a first lumen along at least a portion thereof containing the metallic inner guide member , the shaft and balloon being slidably mounted over the metallic inner guide member , the shaft having a second lumen operatively coupled to the interior of the balloon ; and a handle disposed along a proximal portion of the metallic inner guide member and coupled to the shaft ; an inflation port disposed at the handle , the inflation port being coupled to the second lumen of the shaft ; an irrigation/aspiration port disposed in the handle , the irrigation/aspiration port communicating with the lumen of the metallic inner guide member ; a least one tracking element disposed on the balloon catheter ; and an inflation device configured to couple with the inflation port .
A method of communication for an apparatus of a first object, comprising, at the apparatus: determining that a second object comprising a second apparatus is within at least a threshold proximity from at least one sensor of the first object and coupled to the apparatus; and characterized by : determining a set of detected objects using, at least in-part, the at least one sensor; determining a subset of the set of detected objects that are presently occluded or are expected to be occluded from sensor detection from the second object; and transmitting a message to the second apparatus, the message comprising information corresponding to at least one detected object of the subset of the set of detected objects. determining that a second object comprising a second apparatus is within at least a threshold proximity from at least one sensor of the first object and coupled to the apparatus; and characterized by : determining a set of detected objects using, at least in-part, the at least one sensor; determining a subset of the set of detected objects that are presently occluded or are expected to be occluded from sensor detection from the second object; and transmitting a message to the second apparatus, the message comprising information corresponding to at least one detected object of the subset of the set of detected objects. determining a set of detected objects using, at least in-part, the at least one sensor; determining a subset of the set of detected objects that are presently occluded or are expected to be occluded from sensor detection from the second object; and transmitting a message to the second apparatus, the message comprising information corresponding to at least one detected object of the subset of the set of detected objects.
A remote controller , comprising a first panel and a second panel that are provided with multiple function buttons ; wherein the first panel is rotationally connected to the second panel by using a rotating connecting mechanism ; the rotating connecting mechanism comprises a fixation base fixed to the first panel , a rotating shaft fixed to the second panel ; characterized in a sliding component comprising an arc-shaped sliding rail disposed in the circumference direction of an outer sidewall of the rotating shaft , elastic pieces disposed on the fixation base in the axial direction of the rotating shaft and provided with circular holes , and rolling balls disposed between the arc-shaped sliding rail and the circular holes in an abutted mode; the arc-shaped sliding rail is fitted to the rolling balls in a sliding mode; and two ends of the arc-shaped sliding rail are higher than the middle of the arc-shaped sliding rail in the axial direction of the rotating shaft .
An elevator car comprising one or more side walls defining an interior space for accommodating passengers and/or cargo, the elevator car comprising: a support frame positioned above the interior space ; a working platform suspendably connected to the support frame and moveable between a stowed position, above the interior space , and an operational position, suspended within the interior space ; wherein the working platform comprises at least one stabilizing member and the at least one stabilizing member comprises a first engagement portion ; characterised in that at least one side wall of the one or more side walls comprises a second engagement portion , wherein the second engagement portion is a physically distinct engagement portion positioned on the at least one side wall; and wherein, when the working platform is in the operational position suspended within the interior space, the first engagement portion is configured to engage with the second engagement portion so as to stabilize the working platform in the operational position. a support frame positioned above the interior space ; a working platform suspendably connected to the support frame and moveable between a stowed position, above the interior space , and an operational position, suspended within the interior space ; wherein the working platform comprises at least one stabilizing member and the at least one stabilizing member comprises a first engagement portion ; characterised in that at least one side wall of the one or more side walls comprises a second engagement portion , wherein the second engagement portion is a physically distinct engagement portion positioned on the at least one side wall; and wherein, when the working platform is in the operational position suspended within the interior space, the first engagement portion is configured to engage with the second engagement portion so as to stabilize the working platform in the operational position.
A method for operating a wind turbine , the wind turbine comprising a tower , at least one nacelle mounted on the tower via a yaw system, a hub mounted rotatably on each nacelle , each hub comprising a blade carrying structure , and one or more wind turbine blades , each wind turbine blade being connected to the blade carrying structure via a hinge at a hinge position of the wind turbine blade , each wind turbine blade thereby being arranged to perform pivot movements relative to the blade carrying structure between a minimum pivot angle, defining a maximum rotor diameter, and a maximum pivot angle, defining a minimum rotor diameter, the method being characterized by the steps of: - detecting an airborne object entering a predefined zone around the wind turbine , - comparing a current tip height (H) of the wind turbine to a maximum tip height value, the maximum tip height value representing a maximum allowable tip height under currently prevailing conditions, including the detected airborne object, and - in the case that the current tip height (H) exceeds the maximum tip height value, adjusting the pivot angle (P) of the wind turbine blades in order to decrease the tip height (H) of the wind turbine to a value below the maximum tip height value. - detecting an airborne object entering a predefined zone around the wind turbine , - comparing a current tip height (H) of the wind turbine to a maximum tip height value, the maximum tip height value representing a maximum allowable tip height under currently prevailing conditions, including the detected airborne object, and - in the case that the current tip height (H) exceeds the maximum tip height value, adjusting the pivot angle (P) of the wind turbine blades in order to decrease the tip height (H) of the wind turbine to a value below the maximum tip height value.
An elevated toilet seat assembly for a toilet , the elevated toilet seat assembly comprising; a toilet seat configured to be pivotably coupled to the toilet about an axis , the toilet seat including a support surface having an inner top edge defining a top opening of the toilet seat , the support surface configured to support a person on the toilet seat , and a guard extending below the support surface , the guard having an inner bottom edge defining a bottom opening of the toilet seat , the guard configured to block waste from splashing out of the toilet during use, characterised in that the guard tapers from the inner bottom edge of the guard toward the inner top edge of the support surface . a toilet seat configured to be pivotably coupled to the toilet about an axis , the toilet seat including a support surface having an inner top edge defining a top opening of the toilet seat , the support surface configured to support a person on the toilet seat , and a guard extending below the support surface , the guard having an inner bottom edge defining a bottom opening of the toilet seat , the guard configured to block waste from splashing out of the toilet during use, a support surface having an inner top edge defining a top opening of the toilet seat , the support surface configured to support a person on the toilet seat , and a guard extending below the support surface , the guard having an inner bottom edge defining a bottom opening of the toilet seat , the guard configured to block waste from splashing out of the toilet during use, characterised in that the guard tapers from the inner bottom edge of the guard toward the inner top edge of the support surface .
A vibration isolation device comprising : - a frame intended to be mounted on an engine casing, - a structure intended to be mounted to an external component to isolate, - a resilient member located between said frame and said structure, - at least one fuse mechanism ensuring that said vibration isolation device presents a first stiffness when loads applied to said vibration isolation device are below a predetermined threshold load, and a second stiffness, lower than the first stiffness, when loads applied to the vibration isolation device are at least equal to said predetermined threshold load, wherein said fuse mechanism is arranged, within said vibration isolation device, to constrain said resilient member within a predetermined space when the loads applied to the vibration isolation device are below said predetermined threshold load and to release said resilient member so that this latter is capable of deforming beyond said predetermined space when loads applied to the vibration isolation device are at least equal to said predetermined threshold load, characterized in that said fuse mechanism is a collapsible spacer mounted between said frame and said resilient member and presenting a breaking load corresponding to said predetermined threshold load. - a frame intended to be mounted on an engine casing, - a structure intended to be mounted to an external component to isolate, - a resilient member located between said frame and said structure, - at least one fuse mechanism ensuring that said vibration isolation device presents a first stiffness when loads applied to said vibration isolation device are below a predetermined threshold load, and a second stiffness, lower than the first stiffness, when loads applied to the vibration isolation device are at least equal to said predetermined threshold load, wherein said fuse mechanism is arranged, within said vibration isolation device, to constrain said resilient member within a predetermined space when the loads applied to the vibration isolation device are below said predetermined threshold load and to release said resilient member so that this latter is capable of deforming beyond said predetermined space when loads applied to the vibration isolation device are at least equal to said predetermined threshold load, characterized in that said fuse mechanism is a collapsible spacer mounted between said frame and said resilient member and presenting a breaking load corresponding to said predetermined threshold load. wherein said fuse mechanism is arranged, within said vibration isolation device, to constrain said resilient member within a predetermined space when the loads applied to the vibration isolation device are below said predetermined threshold load and to release said resilient member so that this latter is capable of deforming beyond said predetermined space when loads applied to the vibration isolation device are at least equal to said predetermined threshold load, characterized in that said fuse mechanism is a collapsible spacer mounted between said frame and said resilient member and presenting a breaking load corresponding to said predetermined threshold load.
A method for aligning and contacting a first contact face of a first substrate with a second contact face of a second substrate with the following steps, in particular the following sequence: - fixing of a first support face of the first substrate on a first substrate holder and a second support face of the second substrate on a second substrate holder , which can be arranged opposite the first substrate holder , - detection of a first X-Y position, in particular related to a focal plane of a first detection unit , and/or first alignment orientation of a first alignment marking arranged in particular in a peripheral region of the first substrate , - detection of a second X-Y position, in particular related to a focal plane of a second detection unit , and/or second alignment orientation of a second alignment marking arranged in particular in a peripheral region of the second substrate , - alignment of the first substrate with respect to the second substrate , and - contacting of the first substrate with the second substrate , said first substrate being aligned with respect to the second substrate , characterised in that , before the alignment, a detection of a third X-Y position and/or third alignment orientation of the first substrate holder and/or the first substrate also takes place by a third detection unit , by means of which the alignment is controlled, wherein the first alignment marking and the third alignment marking are arranged on different sides of the first substrate or of the first substrate holder , said sides in particular lying mutually opposite in a Z-direction. - fixing of a first support face of the first substrate on a first substrate holder and a second support face of the second substrate on a second substrate holder , which can be arranged opposite the first substrate holder , - detection of a first X-Y position, in particular related to a focal plane of a first detection unit , and/or first alignment orientation of a first alignment marking arranged in particular in a peripheral region of the first substrate , - detection of a second X-Y position, in particular related to a focal plane of a second detection unit , and/or second alignment orientation of a second alignment marking arranged in particular in a peripheral region of the second substrate , - alignment of the first substrate with respect to the second substrate , and - contacting of the first substrate with the second substrate , said first substrate being aligned with respect to the second substrate ,
Hob device with at least one hob plate (12a-c), with a hob unit (22a-b) which comprises an electronic hob (38a-b) and the hob plate (12a-c), and with at least one integrated extractor unit (14a-c), which has at least one fan unit (16a-c) which generates at least one first air flow (18a-c) in at least one operating mode and transports vapours produced in the operating mode away by means of the first air flow (18a-c), wherein the fan unit (16a-c) in the operating mode generates at least one second air flow (20a-c) and is provided to at least partially cool at least the hob unit (22a-c) by means of the second air flow (20a-c), wherein the extractor unit (14a-c) has at least one air duct unit (24a-c), which, in an installed position, at least essentially connects the fan unit (16a-c) and a top side of the hob plate (12a-c) to one another and through which, in the operating mode, at least the first air flow (18a-c) flows, characterised in that the air duct unit (24a-c) has at least one cooling fin (26a-c) which is provided to cool the hob unit (22a-c).