mhurhangee/patent-ind-claim-en huggingface dataset:
Lamp for the illumination of an area of a building, in particular, an office, wherein the lamp comprises: - illumination means for the provision of color changeable light, - a support device on which the illumination means are mounted, - a control unit for the time-dependent controlling of the lamp , wherein the control unit is configured with control commands for controlling the illumination means , - a current source or a connection for a current source, for supplying the lamp with energy, - a time module disposed in or on the lamp that is configured to independently provide time information and, optionally, the current time of day, and - a communication device for the communication between a data carrier and the control unit , wherein the communication device is configured to read out data that is stored on the data carrier and that contain time information, in accordance with the time information provided by the time module for the time dependent controlling of the lamp and to transmit it to the control unit , - wherein the control unit is further configured to synchronize the time information contained in the data with the time of day provided by the time module and to change it into control commands, - wherein the time-dependent controlling of the lamp includes a time-dependent change in the color of the light emitted by the illumination means , characterized in that the lamp further comprises a switch for manually turning on and off the illumination means , - wherein the data carrier is a portable data memory and the lamp is configured such that the data carrier can be connected to and disconnected from it. - illumination means for the provision of color changeable light, - a support device on which the illumination means are mounted, - a control unit for the time-dependent controlling of the lamp , wherein the control unit is configured with control commands for controlling the illumination means , - a current source or a connection for a current source, for supplying the lamp with energy, - a time module disposed in or on the lamp that is configured to independently provide time information and, optionally, the current time of day, and - a communication device for the communication between a data carrier and the control unit , wherein the communication device is configured to read out data that is stored on the data carrier and that contain time information, in accordance with the time information provided by the time module for the time dependent controlling of the lamp and to transmit it to the control unit , - wherein the control unit is further configured to synchronize the time information contained in the data with the time of day provided by the time module and to change it into control commands, - wherein the time-dependent controlling of the lamp includes a time-dependent change in the color of the light emitted by the illumination means , characterized in that the lamp further comprises a switch for manually turning on and off the illumination means , - wherein the data carrier is a portable data memory and the lamp is configured such that the data carrier can be connected to and disconnected from it.
A device, comprising: one or more electrodes ; a sensing circuit coupled to the one or more electrodes and configured to obtain a signal indicative of electrical activity of a patient's heart; and at least one of a processor or controller configured to obtain an ordered list of R-R intervals within a window leading up to a detection of a potential arrhythmia episode, wherein each of the R-R intervals has a respective duration; and determine, for a value for k selected from a range of values from 1 to M, where M is an integer that is at least 4, an indicator of a median R-R interval difference between pairs of the R-R intervals within the window that are k intervals apart, wherein the at least one of a processor or controller is/are configured to: compare the indicator of the median R-R interval difference to a threshold; and determine that the detection of the potential arrhythmia episode does not correspond to an actual arrhythmia episode, if the indicator of the median R-R interval difference is less than the threshold. one or more electrodes ; a sensing circuit coupled to the one or more electrodes and configured to obtain a signal indicative of electrical activity of a patient's heart; and at least one of a processor or controller configured to obtain an ordered list of R-R intervals within a window leading up to a detection of a potential arrhythmia episode, wherein each of the R-R intervals has a respective duration; and determine, for a value for k selected from a range of values from 1 to M, where M is an integer that is at least 4, an indicator of a median R-R interval difference between pairs of the R-R intervals within the window that are k intervals apart, wherein the at least one of a processor or controller is/are configured to: compare the indicator of the median R-R interval difference to a threshold; and determine that the detection of the potential arrhythmia episode does not correspond to an actual arrhythmia episode, if the indicator of the median R-R interval difference is less than the threshold. obtain an ordered list of R-R intervals within a window leading up to a detection of a potential arrhythmia episode, wherein each of the R-R intervals has a respective duration; and determine, for a value for k selected from a range of values from 1 to M, where M is an integer that is at least 4, an indicator of a median R-R interval difference between pairs of the R-R intervals within the window that are k intervals apart, wherein the at least one of a processor or controller is/are configured to: compare the indicator of the median R-R interval difference to a threshold; and determine that the detection of the potential arrhythmia episode does not correspond to an actual arrhythmia episode, if the indicator of the median R-R interval difference is less than the threshold.
A door spacer , comprising a support plate , characterized in that said support plate has two essentially rectangular mushroom caps that can be secured to the recesses for the latch and the bolt in the frame, and two essentially rectangular recesses for receiving the latch and the bolt are arranged on said support plate .
A kit of parts for an aircraft joint , comprising a first component having a hole , a second component for overlapping the first component at an overlap region when the first and second components are joined together, a fastener having a head and a shank , and a fastener retainer fixedly attached to the second component at the overlap region, wherein the fastener retainer has a recess and a through hole , the fastener head is situated in the recess and between the fastener retainer and the second component , and the fastener shank extends through the hole in the fastener retainer and is arranged to extend into the hole in the first component to fasten the first component to the second component when the first and second components are joined together, and further characterised in that the fastener retainer is attached to the second component such that the fastener head is situated in the recess of the fastener retainer and between the fastener retainer and the second component for retaining the fastener with the second component prior to joining the first and second components together.
A system for vascular roadmapping comprising: an imaging device comprising an x-ray source and an x-ray detector , for generating a fluoroscopy image, a data base including a plurality of contrast-enhanced images, wherein the contrast-enhanced images are generated with different imaging parameters, a user interface element being configured to select intended imaging parameters, a processing device being configured to determine current imaging parameters of the imaging device, to determine from among the imaging parameters of the plurality of contrast-enhanced images the imaging parameters with the smallest deviation from the intended imaging parameters, thereby determining the nearest available contrast-enhanced image, to automatically select said nearest available contrast-enhanced image, to automatically control the imaging device so as to adjust the imaging parameters of the imaging device to the imaging parameters of the selected contrast-enhanced image, and to determine a ready-for-use-state or a not-ready-for-use state of the imaging device based on a completion of an adjustment of the imaging device from the current imaging parameters to the imaging parameters of the selected contrast-enhanced image, wherein the imaging parameters comprises a position of the x-ray source and the x-ray detector , an orientation of the x-ray source and the x-ray detector , settings of the x-ray source , and settings of the x-ray detector , wherein the user interface element is further configured to indicate the state of the imaging device. an imaging device comprising an x-ray source and an x-ray detector , for generating a fluoroscopy image, a data base including a plurality of contrast-enhanced images, wherein the contrast-enhanced images are generated with different imaging parameters, a user interface element being configured to select intended imaging parameters, a processing device being configured to determine current imaging parameters of the imaging device, to determine from among the imaging parameters of the plurality of contrast-enhanced images the imaging parameters with the smallest deviation from the intended imaging parameters, thereby determining the nearest available contrast-enhanced image, to automatically select said nearest available contrast-enhanced image, to automatically control the imaging device so as to adjust the imaging parameters of the imaging device to the imaging parameters of the selected contrast-enhanced image, and to determine a ready-for-use-state or a not-ready-for-use state of the imaging device based on a completion of an adjustment of the imaging device from the current imaging parameters to the imaging parameters of the selected contrast-enhanced image, wherein the imaging parameters comprises a position of the x-ray source and the x-ray detector , an orientation of the x-ray source and the x-ray detector , settings of the x-ray source , and settings of the x-ray detector , wherein the user interface element is further configured to indicate the state of the imaging device.
A recuperated gas turbine engine (20; 120; 220; 320) comprising: an engine core including a compressor section , a combustor section , and a turbine section ; an exhaust duct downstream of the turbine section for receiving a hot turbine exhaust stream (E) from the turbine section , the exhaust duct including a heat exchanger and a temperature-control module upstream of the heat exchanger ; and a compressor bleed line leading from the compressor section into the heat exchanger and a compressor return line leading from the heat exchanger into the engine core upstream of the combustor section , the compressor bleed line operable to selectively feed compressed air to the heat exchanger , the temperature-control module operable to selectively modulate at least one of temperature and flow of the hot turbine exhaust stream (E) with respect to the heat exchanger , wherein: the bleed line splits between first and second branches (236-1, 236-2), the first branch (236-1) leading into the heat exchanger and the second branch (236-2) leading into the exhaust duct upstream of the heat exchanger ; or the recuperated gas turbine engine further comprises an additional compressor bleed line (336-2) independently leading from the compressor section into the exhaust duct upstream of the heat exchanger . an engine core including a compressor section , a combustor section , and a turbine section ; an exhaust duct downstream of the turbine section for receiving a hot turbine exhaust stream (E) from the turbine section , the exhaust duct including a heat exchanger and a temperature-control module upstream of the heat exchanger ; and a compressor bleed line leading from the compressor section into the heat exchanger and a compressor return line leading from the heat exchanger into the engine core upstream of the combustor section , the compressor bleed line operable to selectively feed compressed air to the heat exchanger , the temperature-control module operable to selectively modulate at least one of temperature and flow of the hot turbine exhaust stream (E) with respect to the heat exchanger , wherein: the bleed line splits between first and second branches (236-1, 236-2), the first branch (236-1) leading into the heat exchanger and the second branch (236-2) leading into the exhaust duct upstream of the heat exchanger ; or the recuperated gas turbine engine further comprises an additional compressor bleed line (336-2) independently leading from the compressor section into the exhaust duct upstream of the heat exchanger . the bleed line splits between first and second branches (236-1, 236-2), the first branch (236-1) leading into the heat exchanger and the second branch (236-2) leading into the exhaust duct upstream of the heat exchanger ; or the recuperated gas turbine engine further comprises an additional compressor bleed line (336-2) independently leading from the compressor section into the exhaust duct upstream of the heat exchanger .
A control ring for use in a gas turbine engine , the control ring comprising: a control ring segment defining a centerline axis, wherein the control ring segment includes: an inner diameter surface and an outer diameter surface ; an internal cavity defined between the inner and outer diameter surfaces, wherein the internal cavity is configured to contain a fill material having a higher heat capacitance than the control ring; and a fill material disposed within the internal cavity, the fill material having a higher heat capacitance than the control ring; wherein the fill material is a fluid sealed inside the internal cavity ; characterised in that the control ring comprises a plug between the internal cavity and the outer diameter surface to enclose the internal cavity; and in that the fill material is water or liquid ammonia. an inner diameter surface and an outer diameter surface ; an internal cavity defined between the inner and outer diameter surfaces, wherein the internal cavity is configured to contain a fill material having a higher heat capacitance than the control ring; and a fill material disposed within the internal cavity, the fill material having a higher heat capacitance than the control ring; wherein the fill material is a fluid sealed inside the internal cavity ; characterised in that the control ring comprises a plug between the internal cavity and the outer diameter surface to enclose the internal cavity; and in that the fill material is water or liquid ammonia.
An ultrasonic surgical blade , comprising: a solid body; a longitudinal portion having a proximal end configured to couple to an ultrasonic transmission waveguide and a distal end configured to dissect and coagulate tissue, the longitudinal portion comprising: a substantially planar longitudinal surface ; and a distal hemostasis surface located opposite of the substantially planar longitudinal surface; a transverse portion extending crosswise from the distal end of the longitudinal portion , the transverse portion defining a hook having a free end configured to pull and dissect tissue, the transverse portion comprising: a curved section extending from a distal end of the substantially planar longitudinal surface; a tip surface defined at the free end; a substantially planar proximal inner surface extending from the curved section to the tip surface ; and a plow member extending from the tip surface to the distal hemostasis surface , the plow member comprising first and second lateral surfaces extending from a surface inflection defining a cutting edge ; and a distal dissection edge defined at a surface inflection of the first and second lateral surfaces and the distal hemostasis surface . a solid body; a longitudinal portion having a proximal end configured to couple to an ultrasonic transmission waveguide and a distal end configured to dissect and coagulate tissue, the longitudinal portion comprising: a substantially planar longitudinal surface ; and a distal hemostasis surface located opposite of the substantially planar longitudinal surface; a substantially planar longitudinal surface ; and a distal hemostasis surface located opposite of the substantially planar longitudinal surface; a transverse portion extending crosswise from the distal end of the longitudinal portion , the transverse portion defining a hook having a free end configured to pull and dissect tissue, the transverse portion comprising: a curved section extending from a distal end of the substantially planar longitudinal surface; a tip surface defined at the free end; a substantially planar proximal inner surface extending from the curved section to the tip surface ; and a plow member extending from the tip surface to the distal hemostasis surface , the plow member comprising first and second lateral surfaces extending from a surface inflection defining a cutting edge ; and a curved section extending from a distal end of the substantially planar longitudinal surface; a tip surface defined at the free end; a substantially planar proximal inner surface extending from the curved section to the tip surface ; and a plow member extending from the tip surface to the distal hemostasis surface , the plow member comprising first and second lateral surfaces extending from a surface inflection defining a cutting edge ; and a distal dissection edge defined at a surface inflection of the first and second lateral surfaces and the distal hemostasis surface .
A method, performed by a User Equipment, UE, for UE-assisted data collection for mobility prediction, the method comprising: receiving (500; 600), from a network node of a cellular communications system , a trained UE trajectory prediction model for predicting a UE trajectory; executing (502; 602) the trained UE trajectory prediction model to generate a predicted trajectory for the UE ; comparing (502; 602) the actual UE trajectory to the predicted trajectory for the UE ; and sending (504; 606), to the network node of the cellular communications system , a result of the comparison of the actual UE trajectory to the predicted trajectory for the UE . receiving (500; 600), from a network node of a cellular communications system , a trained UE trajectory prediction model for predicting a UE trajectory; executing (502; 602) the trained UE trajectory prediction model to generate a predicted trajectory for the UE ; comparing (502; 602) the actual UE trajectory to the predicted trajectory for the UE ; and sending (504; 606), to the network node of the cellular communications system , a result of the comparison of the actual UE trajectory to the predicted trajectory for the UE .
A method of eye tracking, comprising: operating a first sensor that has a first level of power consumption to track positions of an eye of a user at a first frame rate; determining positions of the eye at keyframes based on signals collected from the first sensor at the first frame rate; operating a second sensor that has a second level of power consumption to track positions of the eye of the user at a second frame rate upon stopping an operation of the first sensor, the second level of power consumption being lower than the first level of power consumption, the first frame rate being lower than the second frame rate ; determining positions of the eye at regular frames based on signals collected from the second sensor at the second frame rate; generating a bias between an eye position determined based on signals collected from the first sensor at a keyframe and another eye position determined based on signals collected from the second sensor at a regular frame; and calibrating multiple eye positions determined based on signals from the second sensor by subtracting the bias from the multiple eye positions. operating a first sensor that has a first level of power consumption to track positions of an eye of a user at a first frame rate; determining positions of the eye at keyframes based on signals collected from the first sensor at the first frame rate; operating a second sensor that has a second level of power consumption to track positions of the eye of the user at a second frame rate upon stopping an operation of the first sensor, the second level of power consumption being lower than the first level of power consumption, the first frame rate being lower than the second frame rate ; determining positions of the eye at regular frames based on signals collected from the second sensor at the second frame rate; generating a bias between an eye position determined based on signals collected from the first sensor at a keyframe and another eye position determined based on signals collected from the second sensor at a regular frame; and calibrating multiple eye positions determined based on signals from the second sensor by subtracting the bias from the multiple eye positions.
A process for welding of two separate vehicle panels to form an integral part for a vehicle, comprising: providing a first panel including a first weld line area ; providing a second panel including a corresponding second weld line area , the second weld line area for abutting in a weldable relationship to the first weld line area wherein the first and second weld line areas have a first weldable portion and second portion at which welding is hindered during welding attachment of the first and second panels ; applying a curable adhesive at the second portion and placing the first and second panels in welding position; and, welding the panels at the first weldable portion such that the panels are held together during curing of the adhesive, characterized in that the curable adhesive is neither heat curable nor heat cured such that premature curing of the adhesive before or during welding is avoided. providing a first panel including a first weld line area ; providing a second panel including a corresponding second weld line area , the second weld line area for abutting in a weldable relationship to the first weld line area wherein the first and second weld line areas have a first weldable portion and second portion at which welding is hindered during welding attachment of the first and second panels ; applying a curable adhesive at the second portion and placing the first and second panels in welding position; and, welding the panels at the first weldable portion such that the panels are held together during curing of the adhesive, characterized in that the curable adhesive is neither heat curable nor heat cured such that premature curing of the adhesive before or during welding is avoided.