mhurhangee/patent-ind-claim-en huggingface dataset:
A woman's body shaper under garment comprising: a breast-covering region ; and a pair of expandable, stretchable buttocks-covering mesh regions having side flank areas of fabric sufficiently thick to provide side support for said expandable, stretchable mesh buttocks regions, said flank areas extending on the sides and bottoms of said buttocks mesh regions, characterized in that the breast-covering region is made of a flexible mesh portion; a pair of expandable, stretchable side breast-covering mesh regions having flank areas of fabric sufficiently thick to provide side support for said expandable, stretchable mesh breasts region, said flank areas extended on the sides and bottoms of said breast-covering mesh regions of said body shaper undergarment; and in that said buttocks enclosed expandable, stretchable mesh regions include multiple regions of expansion and stretch, with lower portions of said multiple regions being less expandable and stretchable than intermediate regions of expansion and stretch. a breast-covering region ; and a pair of expandable, stretchable buttocks-covering mesh regions having side flank areas of fabric sufficiently thick to provide side support for said expandable, stretchable mesh buttocks regions, said flank areas extending on the sides and bottoms of said buttocks mesh regions, characterized in that the breast-covering region is made of a flexible mesh portion; a pair of expandable, stretchable side breast-covering mesh regions having flank areas of fabric sufficiently thick to provide side support for said expandable, stretchable mesh breasts region, said flank areas extended on the sides and bottoms of said breast-covering mesh regions of said body shaper undergarment; and in that said buttocks enclosed expandable, stretchable mesh regions include multiple regions of expansion and stretch, with lower portions of said multiple regions being less expandable and stretchable than intermediate regions of expansion and stretch.
A controller-circuit for operating an automated vehicle, said system comprising: an input configured to communicate with a perception-sensor used to determine a rendering of an area proximate to a host-vehicle ; an output configured to communicate with a display operable to convey to an operator of the host-vehicle a position of an object present in the area in accordance with the rendering; and a processor in communication with the perception-sensor and the display , said processor configured to operate the host-vehicle in an autonomous-mode , and operate the display to convey to the operator a history of the position of the object in accordance with the rendering, said history conveyed in response to initiating a transition of operation of the host-vehicle from the autonomous-mode to a manual-mode . an input configured to communicate with a perception-sensor used to determine a rendering of an area proximate to a host-vehicle ; an output configured to communicate with a display operable to convey to an operator of the host-vehicle a position of an object present in the area in accordance with the rendering; and a processor in communication with the perception-sensor and the display , said processor configured to operate the host-vehicle in an autonomous-mode , and operate the display to convey to the operator a history of the position of the object in accordance with the rendering, said history conveyed in response to initiating a transition of operation of the host-vehicle from the autonomous-mode to a manual-mode .
A multi-purpose self-propelled railway vehicle designed for the construction, repair and maintenance of railway lines, comprising a main frame equipped with at least two axles and forming at the top a work platform , a driver's cab positioned at a first end of the main frame , a plurality of operating units (W1-W3) mounted or mountable on the work platform for performing respective operations linked to the construction, repair and maintenance of the railway lines, and a plurality of functional units (F1-F4) mounted or mountable below the main frame and intended for supplying the power necessary for moving the railway vehicle and for powering the operating units (W1-W3), wherein said operating units (W1-W3) are applicable to the main frame , and can be removed from it, independently from each other and preferably modular for modifying the configuration of the vehicle as a function of the operations to be performed characterized in that each of said functional units (F1-F4) is housed in a respective containment frame individually applicable below the main frame , and removable or extractable from it, in order to perform maintenance operations on the functional unit (F1-F4).
A method for a user equipment, in the following also referred to as UE, the method comprising: using multiple beams for transmission ; and triggering, by the UE, a power headroom report due to a change of a pathloss being larger than a threshold , wherein the pathloss is associated with a specific beam, and wherein the pathloss is derived from a synchronization signal and transmission power for the transmission is controlled per beam set. using multiple beams for transmission ; and triggering, by the UE, a power headroom report due to a change of a pathloss being larger than a threshold , wherein the pathloss is associated with a specific beam, and wherein the pathloss is derived from a synchronization signal and transmission power for the transmission is controlled per beam set.
A computer-implemented method for adjusting a hearing aid of a user, which hearing aid is adapted for processing sound signals based on sound processing parameters stored in the hearing aid , the method automatically being carried out by a fitting system and the method comprising: providing a user profile of the user comprising actual user information and a fitting history stored in a database of the fitting system , wherein the fitting history comprises fitting information (46, 46', 46") of at least one previous fitting session, in which previous fitting session the hearing aid or a different hearing aid was adjusted for the user; wherein the actual user information comprises an actual audiogram and the fitting history comprises a previous audiogram recorded in a previous fitting session; determining a user experience value of the user, wherein the user experience value depends on the actual user information and the fitting history ; determining sound processing parameters for the hearing aid based on the user experience value ; applying the determined sound processing parameters in the hearing aid , such that the hearing aid is adapted for generating optimized sound signals based on the applied sound processing parameters . providing a user profile of the user comprising actual user information and a fitting history stored in a database of the fitting system , wherein the fitting history comprises fitting information (46, 46', 46") of at least one previous fitting session, in which previous fitting session the hearing aid or a different hearing aid was adjusted for the user; wherein the actual user information comprises an actual audiogram and the fitting history comprises a previous audiogram recorded in a previous fitting session; determining a user experience value of the user, wherein the user experience value depends on the actual user information and the fitting history ; determining sound processing parameters for the hearing aid based on the user experience value ; applying the determined sound processing parameters in the hearing aid , such that the hearing aid is adapted for generating optimized sound signals based on the applied sound processing parameters .
An infrared detector assembly configured for particle screen testing, the assembly comprising: a dewar chamber comprising an aperture and an infrared radiation detector ; and a mirror disposed adjacent to and in front of the aperture of the dewar chamber, the mirror having a reflective surface and an emitting region facing the aperture; wherein the infrared radiation detector is configured to detect first radiation and second radiation, the first radiation originating from at least one relatively cold surface in the dewar chamber and reflecting off the reflective surface of the mirror back into a cavity of the dewar chamber, the second radiation originating from at least one relatively warm surface at or behind the emitting region, whereby a particle in the cavity of the dewar chamber will block a portion of the second radiation to cause an artifact in an image at the infrared radiation detector. a dewar chamber comprising an aperture and an infrared radiation detector ; and a mirror disposed adjacent to and in front of the aperture of the dewar chamber, the mirror having a reflective surface and an emitting region facing the aperture; wherein the infrared radiation detector is configured to detect first radiation and second radiation, the first radiation originating from at least one relatively cold surface in the dewar chamber and reflecting off the reflective surface of the mirror back into a cavity of the dewar chamber, the second radiation originating from at least one relatively warm surface at or behind the emitting region, whereby a particle in the cavity of the dewar chamber will block a portion of the second radiation to cause an artifact in an image at the infrared radiation detector.
A method for ranging between a target welt and a ranging well, the method comprising: generating a clock signal with a first frequency; generating a ranging signal from the clock signal having the first frequency; generating a reference signal from the clock signal having a second frequency; launching the ranging signal from the target well; transmitting the reference signal into a geological formation above the target well and the ranging well; receiving the reference signal with a first receiver in the form of magnetic or electric field values or changes in the magnetic or electric fields in the ranging well; reconstructing the received reference signal as a reconstructed reference signal, the reconstructed reference signal being based on the clock signal; using one of the first receiver or a second receiver in the ranging well configured to receive signals in the form of magnetic or electric field values or changes in the magnetic or electric fields, receiving a signal that is a combination of noise and of the ranging signal launched from the target well; producing a filtered ranging signal using the reconstructed reference signal in combination with the received signal; and determining a relative location of the target well in relation to the ranging well based on the filtered ranging signal, wherein the reference signal has a lower frequency than the ranging signal. generating a clock signal with a first frequency; generating a ranging signal from the clock signal having the first frequency; generating a reference signal from the clock signal having a second frequency; launching the ranging signal from the target well; transmitting the reference signal into a geological formation above the target well and the ranging well; receiving the reference signal with a first receiver in the form of magnetic or electric field values or changes in the magnetic or electric fields in the ranging well; reconstructing the received reference signal as a reconstructed reference signal, the reconstructed reference signal being based on the clock signal; using one of the first receiver or a second receiver in the ranging well configured to receive signals in the form of magnetic or electric field values or changes in the magnetic or electric fields, receiving a signal that is a combination of noise and of the ranging signal launched from the target well; producing a filtered ranging signal using the reconstructed reference signal in combination with the received signal; and determining a relative location of the target well in relation to the ranging well based on the filtered ranging signal, wherein the reference signal has a lower frequency than the ranging signal.
A train comprising a wireless communication system comprising a communication unit arranged inside said train; an antenna provided on or above an exterior metal surface of the train; a power cable connecting the antenna to the communication unit ; a data transferring path connecting the antenna to the communication unit, for transfer of data there between; and a protective shield being formed of a conductive material and being electrically and mechanically bonded to the exterior metal surface of the train , wherein the shield comprises a cavity for accommodation of the antenna , and at least one waveguide extending through the protective shield and into said cavity , thereby enabling radio frequency waves to pass through the protective shield into and out from said antenna , wherein the at least one waveguide comprises a plurality of waveguides extending in parallel with each other, characterized in that the plurality of waveguides is provided in two or more planes being essentially parallel to the exterior metal surface , thereby forming rows and columns of waveguides. a communication unit arranged inside said train; an antenna provided on or above an exterior metal surface of the train; a power cable connecting the antenna to the communication unit ; a data transferring path connecting the antenna to the communication unit, for transfer of data there between; and a protective shield being formed of a conductive material and being electrically and mechanically bonded to the exterior metal surface of the train , wherein the shield comprises a cavity for accommodation of the antenna , and at least one waveguide extending through the protective shield and into said cavity , thereby enabling radio frequency waves to pass through the protective shield into and out from said antenna , wherein the at least one waveguide comprises a plurality of waveguides extending in parallel with each other, characterized in that the plurality of waveguides is provided in two or more planes being essentially parallel to the exterior metal surface , thereby forming rows and columns of waveguides.
A platform for facilitating development of intelligence in an Industrial Internet of Things, IIoT, system, comprising: a plurality of distinct data-handling layers comprising: an industrial monitoring systems layer that collects data from or about a plurality of industrial entities in the IIoT system; and an industrial entity-oriented data storage systems layer that stores the data collected by the industrial monitoring systems layer, characterizing in that the platform comprises a further plurality of distinct data-handling layers, comprising: an adaptive intelligent systems layer that provisions available computing resources within the platform; and an industrial management application platform layer that manages the platform in a common application environment, wherein the industrial management application platform layer comprises one or more applications that manage, monitor, control, analyze, or otherwise interact with the plurality of industrial entities in the IIoT system. a plurality of distinct data-handling layers comprising: an industrial monitoring systems layer that collects data from or about a plurality of industrial entities in the IIoT system; and an industrial entity-oriented data storage systems layer that stores the data collected by the industrial monitoring systems layer, an industrial monitoring systems layer that collects data from or about a plurality of industrial entities in the IIoT system; and an industrial entity-oriented data storage systems layer that stores the data collected by the industrial monitoring systems layer, an adaptive intelligent systems layer that provisions available computing resources within the platform; and an industrial management application platform layer that manages the platform in a common application environment, wherein the industrial management application platform layer comprises one or more applications that manage, monitor, control, analyze, or otherwise interact with the plurality of industrial entities in the IIoT system.
Sole for a sports shoe, notably for a cross-country ski boot, comprising a first component acting as a framework and at least one second component assembled with the first component , characterized in that the second component comprises an anterior part extending substantially longitudinally in an anterior part of the sole and in that the anterior part of the second component of the sole extends between two lateral parts of the anterior part of the first component and/or at least partially between two lateral rows of anterior studs of the first component of the sole.
Refrigerator and/or freezer comprising a light source and a light-guide element in the form of a light-guide plate comprising two main surfaces (H1, H2), which form the front side and rear side of the light-guide plate , and adjacent edges, wherein the light-guide plate is arranged relative to the light source such that the light emitted by the light source is incident on the light-guide plate , wherein a pyramidal or conical depression is provided on the main surface (H1) for distributing the coupled-in light, the base of which is arranged in one of the main surfaces (H1, H2) and on the surface(s) of which extending obliquely relative to the main surface (H1) the light emitted by the light source is incident, wherein the light extends perpendicularly to the base of the depression , and wherein the light-guide plate is arranged within the cooled interior of the appliance in order to illuminate it.
An apparatus for synchronization, comprising: a first wireless device , having a first device profile, a near-field magnetic induction (NFMI) signal input and a wireless signal input; wherein the first wireless device is configured to, receive, through the wireless signal input, a first set of data, the first set of data comprising at least one of left and right audio data; optimize the first set of data based on the first device profile; receive, through the NFMI signal input, a second set of data optimized for a second device profile of a second wireless device , the second set of data comprising at least the other of left and right audio data; synchronize the first and second sets of optimized data based on a set of common data attributes to preserve an audio stereo image; wherein the first wireless device comprises an audio reproduction device and the second wireless device comprises an audio reproduction device; wherein the common data attributes include at least one of: time, embedded code, signal feature, signal characteristic, or trigger condition; and wherein the synchronization of the data sets includes at least one of: signal amplitude adjustment, signal power adjustment, equalization, signal balancing, signal compression, Dynamic Range Compression 'DRC', or Ambient Volume Control 'AVC'. a first wireless device , having a first device profile, a near-field magnetic induction (NFMI) signal input and a wireless signal input; wherein the first wireless device is configured to, receive, through the wireless signal input, a first set of data, the first set of data comprising at least one of left and right audio data; optimize the first set of data based on the first device profile; receive, through the NFMI signal input, a second set of data optimized for a second device profile of a second wireless device , the second set of data comprising at least the other of left and right audio data; synchronize the first and second sets of optimized data based on a set of common data attributes to preserve an audio stereo image; receive, through the wireless signal input, a first set of data, the first set of data comprising at least one of left and right audio data; optimize the first set of data based on the first device profile; receive, through the NFMI signal input, a second set of data optimized for a second device profile of a second wireless device , the second set of data comprising at least the other of left and right audio data; synchronize the first and second sets of optimized data based on a set of common data attributes to preserve an audio stereo image; wherein the first wireless device comprises an audio reproduction device and the second wireless device comprises an audio reproduction device; wherein the common data attributes include at least one of: time, embedded code, signal feature, signal characteristic, or trigger condition; and wherein the synchronization of the data sets includes at least one of: signal amplitude adjustment, signal power adjustment, equalization, signal balancing, signal compression, Dynamic Range Compression 'DRC', or Ambient Volume Control 'AVC'.
A lighting device, in particular for a motor vehicle, comprising LEDs fixed on a front face of a printed circuit board or PCB, and a channel system of light placed in front of the illuminating face of the LED, characterized in that the channel system comprises at least one annular channel define by two hollow cylinders parallel plates , with at least one of face oriented toward inside annular channel is white-colored, and said plates resting on the printed circuit board and/or on the periphery thereof, on each side of the LEDs borne by the printed circuit board and positioned at the level of the annular channel bottom, the light emitted by the LED leaves the annular channel by a free end opposite to the bottom, and the front face of the front plate of the printed circuit board forms an angle with a sectional plan of annular channel, said angle goes up to 20°, ad preferably of about 35°.
A method of operating a dehydrogenation system with a plurality of dehydrogenation reactors alternating between dehydrogenation modes and regeneration modes in a timed sequence in a repeating system cycle comprising: (a) operating the plurality of dehydrogenation reactors in an initial system sequence having an initial characteristic peak productivity over the course of a system cycle; (b) determining the productivity characteristics of each of the dehydrogenation reactors; (c) re-sequencing the reactors to operate in a second system sequence having a re-sequenced characteristic peak productivity lower than that of said initial characteristic peak productivity; and (d) increasing the re-sequenced characteristic peak productivity to a re-sequenced operating level to thereby increase system productivity over a system cycle as compared with operation in the initial system sequence. (a) operating the plurality of dehydrogenation reactors in an initial system sequence having an initial characteristic peak productivity over the course of a system cycle; (b) determining the productivity characteristics of each of the dehydrogenation reactors; (c) re-sequencing the reactors to operate in a second system sequence having a re-sequenced characteristic peak productivity lower than that of said initial characteristic peak productivity; and (d) increasing the re-sequenced characteristic peak productivity to a re-sequenced operating level to thereby increase system productivity over a system cycle as compared with operation in the initial system sequence.