mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving , by a flying autonomous robot, Vehicle-to-Everything, V2X, messages including digital data describing path information for a set of vehicles indicating a heading or trajectory of each vehicle of the set of vehicles as an indication of whether the vehicle is heading in a same general direction as the flying autonomous robot, kinematic data describing whether the set of vehicles are currently stationary or not currently in motion, whether the vehicles of the set of vehicles are capable of providing assistance to the flying autonomous robot, and GPS data describing GPS coordinates of the set of vehicles, wherein the flying autonomous robot includes a V2X radio that receives the V2X message; selecting , by the flying autonomous robot, a vehicle to land on from the set of vehicles based on the path data and the kinematic data for the vehicle indicating that a brake for the vehicle is engaged; modifying , by the flying autonomous robot, a flight path of the flying autonomous robot based on the digital data so that the flight path approaches the vehicle; and landing the flying autonomous robot on the vehicle while the vehicle is not currently in motion. receiving , by a flying autonomous robot, Vehicle-to-Everything, V2X, messages including digital data describing path information for a set of vehicles indicating a heading or trajectory of each vehicle of the set of vehicles as an indication of whether the vehicle is heading in a same general direction as the flying autonomous robot, kinematic data describing whether the set of vehicles are currently stationary or not currently in motion, whether the vehicles of the set of vehicles are capable of providing assistance to the flying autonomous robot, and GPS data describing GPS coordinates of the set of vehicles, wherein the flying autonomous robot includes a V2X radio that receives the V2X message; selecting , by the flying autonomous robot, a vehicle to land on from the set of vehicles based on the path data and the kinematic data for the vehicle indicating that a brake for the vehicle is engaged; modifying , by the flying autonomous robot, a flight path of the flying autonomous robot based on the digital data so that the flight path approaches the vehicle; and landing the flying autonomous robot on the vehicle while the vehicle is not currently in motion.
A prepreg that is curable to form a composite material, said prepreg comprising: A) fibers; and B) an uncured resin comprising: a) an epoxy resin component comprising: 1) 23 to 27 weight percent triglycidyl aminophenol epoxy resin, based on the total weight of said uncured resin; 2) 23 to 27 weight percent tetrafunctional epoxy resin, based on the total weight of said uncured resin; 3) 4 to 8 weight percent solid epoxy resin, based on the total weight of said uncured resin b) 12 to 16 weight percent polyethersulfone, based on the total weight of said uncured resin; c) 1 to 5 weight percent of a thermoplastic particle component, based on the total weight of said uncured resin; and d) a sufficient amount of a curing agent to provide curing of said uncured resin to form said composite material; wherein said solid epoxy resin is selected from the group of solid epoxy resins having the following formulas: where G is a glycidyl or epoxide group and n = 1.5 to 2 ; and A) fibers; and B) an uncured resin comprising: a) an epoxy resin component comprising: 1) 23 to 27 weight percent triglycidyl aminophenol epoxy resin, based on the total weight of said uncured resin; 2) 23 to 27 weight percent tetrafunctional epoxy resin, based on the total weight of said uncured resin; 3) 4 to 8 weight percent solid epoxy resin, based on the total weight of said uncured resin b) 12 to 16 weight percent polyethersulfone, based on the total weight of said uncured resin; c) 1 to 5 weight percent of a thermoplastic particle component, based on the total weight of said uncured resin; and d) a sufficient amount of a curing agent to provide curing of said uncured resin to form said composite material; a) an epoxy resin component comprising: 1) 23 to 27 weight percent triglycidyl aminophenol epoxy resin, based on the total weight of said uncured resin; 2) 23 to 27 weight percent tetrafunctional epoxy resin, based on the total weight of said uncured resin; 3) 4 to 8 weight percent solid epoxy resin, based on the total weight of said uncured resin 1) 23 to 27 weight percent triglycidyl aminophenol epoxy resin, based on the total weight of said uncured resin; 2) 23 to 27 weight percent tetrafunctional epoxy resin, based on the total weight of said uncured resin; 3) 4 to 8 weight percent solid epoxy resin, based on the total weight of said uncured resin b) 12 to 16 weight percent polyethersulfone, based on the total weight of said uncured resin; c) 1 to 5 weight percent of a thermoplastic particle component, based on the total weight of said uncured resin; and d) a sufficient amount of a curing agent to provide curing of said uncured resin to form said composite material;
A method for displaying time on a mobile device comprising a screen, a display driver chip, an application processor, a touch panel and a touch chip, comprising: when it is determined to switch off the screen, closing the application processor and synchronizing, through the application processor, a current standard time of the mobile device corresponding to a moment that the application processor is closed to the touch chip , determining whether a preset operation for displaying device time is detected when the screen of the mobile device is off; when determining that the preset operation for displaying the device time is detected, sending device time computed by the touch chip to the display driver chip through the touch chip, wherein the touch chip is configured to acquire the standard time of the mobile device when the application processor is closed and to compute the device time according to an internal clock; and switching on the screen and displaying the device time on the screen through the display driver chip . when it is determined to switch off the screen, closing the application processor and synchronizing, through the application processor, a current standard time of the mobile device corresponding to a moment that the application processor is closed to the touch chip , determining whether a preset operation for displaying device time is detected when the screen of the mobile device is off; when determining that the preset operation for displaying the device time is detected, sending device time computed by the touch chip to the display driver chip through the touch chip, wherein the touch chip is configured to acquire the standard time of the mobile device when the application processor is closed and to compute the device time according to an internal clock; and switching on the screen and displaying the device time on the screen through the display driver chip .
A control method performed by a target femto base station , the method comprising: receiving terminal trace activation information from a source base station if a terminal performs handover from the source base station to the target femto base station ; and transmitting, to a target femto gateway that is not serving the source base station , an S1AP path switch request message to notify the target femto gateway that the terminal has successfully connected to the target femto base station , wherein the target femto base station is connected to a mobile management entity , MME, via the target femto gateway , and the S1AP path switch request message includes the received terminal trace activation information, causing the target femto gateway to trace the terminal . receiving terminal trace activation information from a source base station if a terminal performs handover from the source base station to the target femto base station ; and transmitting, to a target femto gateway that is not serving the source base station , an S1AP path switch request message to notify the target femto gateway that the terminal has successfully connected to the target femto base station , wherein the target femto base station is connected to a mobile management entity , MME, via the target femto gateway , and the S1AP path switch request message includes the received terminal trace activation information, causing the target femto gateway to trace the terminal .
A backlight device for a holographic display comprising: a light source configured to emit light comprising a plurality of wavelengths; a light guide plate configured to guide the light emitted by the light source; a first holographic optical element (H1) provided on a side of the light guide plate; and a second holographic optical element (H2) configured to enable light incident from the first holographic optical element to exit the light guide plate, wherein the first holographic optical element is configured to diffractively expand and reflect light from the light source that has propagated through the light guide plate toward the second holographic optical element, and wherein the second holographic optical element is configured to operate as a lens to concentrate light incident from the first holographic optical element, and characterised in that the first holographic optical element comprises a multi-layered structure, the layers of the multi-layered structure being configured to respectively respond to different wavelengths of light, and in that each layer of the multi-layered structure comprises a holographic pattern based on the wavelength of light the layer is responsive to. a light source configured to emit light comprising a plurality of wavelengths; a light guide plate configured to guide the light emitted by the light source; a first holographic optical element (H1) provided on a side of the light guide plate; and a second holographic optical element (H2) configured to enable light incident from the first holographic optical element to exit the light guide plate, wherein the first holographic optical element is configured to diffractively expand and reflect light from the light source that has propagated through the light guide plate toward the second holographic optical element, and wherein the second holographic optical element is configured to operate as a lens to concentrate light incident from the first holographic optical element, and characterised in that the first holographic optical element comprises a multi-layered structure, the layers of the multi-layered structure being configured to respectively respond to different wavelengths of light, and in that each layer of the multi-layered structure comprises a holographic pattern based on the wavelength of light the layer is responsive to.
A drug-loaded microbead composition comprising: a plurality of individual microbeads of a biodegradable material; a plurality of individual vesicular agents contained within the individual microbeads or associated with the biodegradable material of the individual microbeads through ionic or non-covalent interaction, the vesicular agents comprising at least one lipid bilayer surrounding a vesicular core, wherein the vesicular agents comprise liposomes or ethosomes; and a first therapeutic agent contained within the individual vesicular agents or associated with the individual vesicular agents by ionic or non-covalent interaction; and a second therapeutic agent different from the first therapeutic agent and contained within the individual microbeads or associated with the individual microbeads through ionic or non-covalent interaction. a plurality of individual microbeads of a biodegradable material; a plurality of individual vesicular agents contained within the individual microbeads or associated with the biodegradable material of the individual microbeads through ionic or non-covalent interaction, the vesicular agents comprising at least one lipid bilayer surrounding a vesicular core, wherein the vesicular agents comprise liposomes or ethosomes; and a first therapeutic agent contained within the individual vesicular agents or associated with the individual vesicular agents by ionic or non-covalent interaction; and a second therapeutic agent different from the first therapeutic agent and contained within the individual microbeads or associated with the individual microbeads through ionic or non-covalent interaction.
An apparatus for use in combination with a computer for sensing biopotentials comprising: a catheter comprising: a plurality of sensing electrodes ; a corresponding plurality of local amplifiers , each coupled to one of the plurality of sensing electrodes ; a data, control and power circuit coupled to the plurality of local amplifiers ; and a photonic device configured for bidirectionally communicating an electrical signal with the data, control and power circuit and for communicating an optical signal with an optical fiber ; where the photonic device is configured to bidirectionally communicate the optical signal with the optical fiber; and an optical interface device to provide optical power to the optical fiber and thence to the photonic device and to receive optical signals through the optical fiber from the photonic device , wherein the optical interface device is configured to bidirectionally communicate an electrical data, control and power signal to the computer, further comprising a flexible printed circuit board and where the local amplifiers and data, control and power circuit comprise application specific integrated circuits (ASICs) mounted on both sides of the flexible printed circuit board within the catheter having a size of 11 French or smaller, or further comprising a flexible printed circuit board and where the local amplifiers and data, control and power circuit comprise application specific integrated circuits, ASICs , mounted on both sides of the flexible printed circuit board having a width of 2.5mm or less and a height including the ASICs of 2mm or less. a plurality of sensing electrodes ; a corresponding plurality of local amplifiers , each coupled to one of the plurality of sensing electrodes ; a data, control and power circuit coupled to the plurality of local amplifiers ; and a photonic device configured for bidirectionally communicating an electrical signal with the data, control and power circuit and for communicating an optical signal with an optical fiber ; where the photonic device is configured to bidirectionally communicate the optical signal with the optical fiber; and an optical interface device to provide optical power to the optical fiber and thence to the photonic device and to receive optical signals through the optical fiber from the photonic device , wherein the optical interface device is configured to bidirectionally communicate an electrical data, control and power signal to the computer, further comprising a flexible printed circuit board and where the local amplifiers and data, control and power circuit comprise application specific integrated circuits (ASICs) mounted on both sides of the flexible printed circuit board within the catheter having a size of 11 French or smaller, or further comprising a flexible printed circuit board and where the local amplifiers and data, control and power circuit comprise application specific integrated circuits, ASICs , mounted on both sides of the flexible printed circuit board having a width of 2.5mm or less and a height including the ASICs of 2mm or less.
An antenna apparatus having directivity, comprising: an antenna portion having a power feeding portion , a plate-like first antenna element having a principal surface, and a second antenna element connected to a side of the first antenna element through the power feeding portion , the second antenna element having a width smaller than the width of the first antenna element ; and a plate-like parasitic element disposed opposite to the antenna portion , wherein the parasitic element has a length that is approximately one-half or more of a wavelength of an operating frequency, the antenna portion and the parasitic element have a distance capable of being connected electromagnetically to each other, the first antenna element has a predetermined length and/or width so as to control a resonance frequency of the antenna apparatus, the second antenna element has a predetermined length so as to control an input impedance, and the antenna portion and the parasitic element resonate at the operating frequency, characterized in that the second antenna element has a length that is shorter than one-fourth of the wavelength of the operating frequency. an antenna portion having a power feeding portion , a plate-like first antenna element having a principal surface, and a second antenna element connected to a side of the first antenna element through the power feeding portion , the second antenna element having a width smaller than the width of the first antenna element ; and a plate-like parasitic element disposed opposite to the antenna portion , wherein the parasitic element has a length that is approximately one-half or more of a wavelength of an operating frequency, the antenna portion and the parasitic element have a distance capable of being connected electromagnetically to each other, the first antenna element has a predetermined length and/or width so as to control a resonance frequency of the antenna apparatus, the second antenna element has a predetermined length so as to control an input impedance, and the antenna portion and the parasitic element resonate at the operating frequency, characterized in that the second antenna element has a length that is shorter than one-fourth of the wavelength of the operating frequency.
A support for hosting of a treated subject, particularly a chaise longue, including a hosting seat configured to host a user, and a frame carrying said hosting seat , the support comprising a stimulation unit including one or more stimulation devices configured for operating dependently of consumable material (F1, F2, F3), wherein said stimulation unit includes a mobile element installed within said frame and movable between a retracted position and an extracted position, and configured to contain the consumable material (F1, F2, F3), said mobile element being extractable to allow the replacement of the depleted consumable material the support being characterized in that it includes at least one further stimulation unit including one or more stimulation devices (SP, ST) configured for operating independently of consumable material, said further stimulation unit includes a cushion structure provided with two wings at opposite ends thereof, wherein said cushion-like structure is positioned at an end of the hosting seat configured to receive the head of a user, and wherein in correspondence of each of said wings a device for visual stimulation (ST, SC) and/or a device for sound stimulation (SP) are arranged, wherein said cushion structure houses a first and a second speaker (SP) in correspondence of each of said wings , each speaker (SP) being installed in a corresponding acoustic horn .
A jarring apparatus , comprising: first and second jarring assemblies axially moveable relative to each other between first and second axial configurations; a thrust assembly interposed between the first and second jarring assemblies to limit relative axial movement therebetween at the second axial configuration and permit axial loading in one axial direction to be transferred between the first and second jarring assemblies via the thrust assembly ; a jarring mass axially moveable within the jarring apparatus in reverse first and second directions; a force mechanism for biasing the jarring mass in its first axial direction and for biasing the first and second jarring assemblies in a direction towards their first axial configuration; and a lifting assembly operable by relative rotation between the first and second jarring assemblies to cyclically lift the jarring mass in the second axial direction against the bias of the force mechanism and release the lifted jarring mass to permit the jarring mass to be driven by the force mechanism in the first direction. first and second jarring assemblies axially moveable relative to each other between first and second axial configurations; a thrust assembly interposed between the first and second jarring assemblies to limit relative axial movement therebetween at the second axial configuration and permit axial loading in one axial direction to be transferred between the first and second jarring assemblies via the thrust assembly ; a jarring mass axially moveable within the jarring apparatus in reverse first and second directions; a force mechanism for biasing the jarring mass in its first axial direction and for biasing the first and second jarring assemblies in a direction towards their first axial configuration; and a lifting assembly operable by relative rotation between the first and second jarring assemblies to cyclically lift the jarring mass in the second axial direction against the bias of the force mechanism and release the lifted jarring mass to permit the jarring mass to be driven by the force mechanism in the first direction.
A carrying aid for transporting objects, having a carrying leg and a load-receiving leg , wherein at least one rotatably mounted load support is arranged in the region of a free end of the load-receiving leg , wherein the load support is a radial segment which rests on the load-receiving leg at the free end and forms a load-bearing mount therewith, characterized in that at least one inner surface of the load-receiving leg forms a mounting tray at the free end and corresponds to the radial segment and at least the load-receiving leg has a flat inner surface .