mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a plurality of light-emitter devices , wherein the plurality of light-emitter devices is operable to emit light along a plurality of emission vectors such that the emitted light interacts with an external environment of the system; a receiver subsystem configured to provide information indicative of interactions between the emitted light and the external environment; and a controller operable to carry out operations, the operations comprising: determining, for at least one light-emitter device of the plurality of light-emitter devices, a light pulse schedule, wherein the light pulse schedule is based on a respective emission vector of the at least one light-emitter device and a three-dimensional map of the external environment, wherein the light pulse schedule comprises at least one light pulse parameter and a listening window duration; and causing the at least one light-emitter device of the plurality of light-emitter devices to emit a light pulse according to the light pulse schedule. a plurality of light-emitter devices , wherein the plurality of light-emitter devices is operable to emit light along a plurality of emission vectors such that the emitted light interacts with an external environment of the system; a receiver subsystem configured to provide information indicative of interactions between the emitted light and the external environment; and a controller operable to carry out operations, the operations comprising: determining, for at least one light-emitter device of the plurality of light-emitter devices, a light pulse schedule, wherein the light pulse schedule is based on a respective emission vector of the at least one light-emitter device and a three-dimensional map of the external environment, wherein the light pulse schedule comprises at least one light pulse parameter and a listening window duration; and causing the at least one light-emitter device of the plurality of light-emitter devices to emit a light pulse according to the light pulse schedule. determining, for at least one light-emitter device of the plurality of light-emitter devices, a light pulse schedule, wherein the light pulse schedule is based on a respective emission vector of the at least one light-emitter device and a three-dimensional map of the external environment, wherein the light pulse schedule comprises at least one light pulse parameter and a listening window duration; and causing the at least one light-emitter device of the plurality of light-emitter devices to emit a light pulse according to the light pulse schedule.
A device (200; 300; 500) configured to be located underneath an eyelid, positioned between the eyelid and a surface of the eye, and worn by a user for treating dry eye, the device (200; 300; 500) comprising: a first surface configured to face a portion of a sclera of the eye and to be in contact with the surface of the eye; a second surface configured to face an eyelid and to be completely covered by the eyelid when the eyelid is open, while the first surface is in contact with the surface of the eye; a plurality of stimulation electrodes proximal to the first surface, wherein the plurality of stimulation electrodes is configured to stimulate the sclera and/or conjunctival surfaces of the eye; an energy storage element coupled to the plurality of stimulation electrodes to supply power to the plurality of stimulation electrodes ; and a processor configured to control a supply of energy from the energy storage element to the plurality of stimulation electrodes to stimulate the sclera and/or conjunctival surfaces of the eye. a first surface configured to face a portion of a sclera of the eye and to be in contact with the surface of the eye; a second surface configured to face an eyelid and to be completely covered by the eyelid when the eyelid is open, while the first surface is in contact with the surface of the eye; a plurality of stimulation electrodes proximal to the first surface, wherein the plurality of stimulation electrodes is configured to stimulate the sclera and/or conjunctival surfaces of the eye; an energy storage element coupled to the plurality of stimulation electrodes to supply power to the plurality of stimulation electrodes ; and a processor configured to control a supply of energy from the energy storage element to the plurality of stimulation electrodes to stimulate the sclera and/or conjunctival surfaces of the eye.
An electropneumatic gas mixing valve and pressure controller , the controller comprising: at least one port configured to receive a first gas component; an additional port configured to receive a second gas component; a first gas mixer in fluid communication with the at least one port and the additional port , the first gas mixer configured to: receive the first and second gas component; mix the first and second gas component into a mixture; measure a pressure of the mixture; and control a mass flow rate of at least one of the first and second gas component based on the pressure of the mixture for pressurizing beer, wherein the first gas mixer is comprised of: mixing manifold ; at least one valve coupled to the mixing manifold ; at least one flow sensor (124a; 124b); coupled to the mixing manifold ; and a pressure sensor coupled to the mixing manifold . at least one port configured to receive a first gas component; an additional port configured to receive a second gas component; a first gas mixer in fluid communication with the at least one port and the additional port , the first gas mixer configured to: receive the first and second gas component; mix the first and second gas component into a mixture; measure a pressure of the mixture; and control a mass flow rate of at least one of the first and second gas component based on the pressure of the mixture for pressurizing beer, wherein the first gas mixer is comprised of: mixing manifold ; at least one valve coupled to the mixing manifold ; at least one flow sensor (124a; 124b); coupled to the mixing manifold ; and a pressure sensor coupled to the mixing manifold . receive the first and second gas component; mix the first and second gas component into a mixture; measure a pressure of the mixture; and control a mass flow rate of at least one of the first and second gas component based on the pressure of the mixture for pressurizing beer, wherein the first gas mixer is comprised of: mixing manifold ; at least one valve coupled to the mixing manifold ; at least one flow sensor (124a; 124b); coupled to the mixing manifold ; and a pressure sensor coupled to the mixing manifold .
A device comprising or being connectable to a microphone system comprising one or more microphones for capturing audio, the device comprising: a receiving unit configured to: receive (S13) directional audio captured by the microphone system; receive (S14) metadata associated with the microphone system, the metadata comprising spatial data of the microphone system, the spatial data being indicative of a change in spatial orientation and/or spatial position of the microphone system in comparison with a previous orientation/position of the microphone system and comprising at least one from the list of: an azimuth, pitch, roll angle(s), and spatial coordinates of the microphone system; a computing unit configured to: modify at least some of the directional audio to produce modified directional audio, whereby a directional property of the audio is modified in response to the spatial orientation and/or spatial position of the microphone system; encode the modified directional audio into digital audio data ; a transmitting unit configured to transmit the digital audio data. a receiving unit configured to: receive (S13) directional audio captured by the microphone system; receive (S14) metadata associated with the microphone system, the metadata comprising spatial data of the microphone system, the spatial data being indicative of a change in spatial orientation and/or spatial position of the microphone system in comparison with a previous orientation/position of the microphone system and comprising at least one from the list of: an azimuth, pitch, roll angle(s), and spatial coordinates of the microphone system; receive (S13) directional audio captured by the microphone system; receive (S14) metadata associated with the microphone system, the metadata comprising spatial data of the microphone system, the spatial data being indicative of a change in spatial orientation and/or spatial position of the microphone system in comparison with a previous orientation/position of the microphone system and comprising at least one from the list of: an azimuth, pitch, roll angle(s), and spatial coordinates of the microphone system; a computing unit configured to: modify at least some of the directional audio to produce modified directional audio, whereby a directional property of the audio is modified in response to the spatial orientation and/or spatial position of the microphone system; encode the modified directional audio into digital audio data ; modify at least some of the directional audio to produce modified directional audio, whereby a directional property of the audio is modified in response to the spatial orientation and/or spatial position of the microphone system; encode the modified directional audio into digital audio data ; a transmitting unit configured to transmit the digital audio data.
Biocompatible mucoadhesive block copolymer micelles comprising a degradable hydrophobic component, a degradable synthetic hydrophilic component and a mucoadhesive component, wherein the hydrophobic component is selected from the group consisting of polyesters, polyurethanes, polyureas, polycarbonates, polyethers, polysulfides, polysulfonates, polyimides, polybenzimidazoles, a lipoglycan, a proteoglycan and combinations thereof, the hydrophilic component comprises monomers selected from the group consisting of methacrylic acid, acrylic acid, hydroxyethyl methacrylate, hydroxypropylmethacrylamide, hydroxyethyl acrylate, polyethylene glycol methacrylate, vinyl alcohol, vinylpyrollidone and combinations thereof, the mucoadhesive component is selected from the group consisting of a boronic acid or derivatives thereof, a thiol-containing compound, an acrylate, chitosan, cellulose, thiolated chitosan, thiolated hyaluronic acid, thiolated poly(acrylic) acid and mixtures thereof, and the block copolymer is prepared by combining and polymerizing the hydrophobic, hydrophilic and mucoadhesive components to yield a block copolymer from which the micelles are prepared having a hydrophobic core and a hydrophilic shell incorporating the mucoadhesive component.
Personal protective equipment comprising: - a filtering face mask comprising a concave portion adapted to receive part of the face of a user and a filtering septum, and - a support apparatus for said face mask which is provided with: ∘ a wearable element comprising an adhesive tape , characterized by ∘ a quick coupling device provided with a first portion and a second portion which are removably fixed to each other and in which the first portion is fixed to the face mask and the second portion is integrally joined with the adhesive tape . - a filtering face mask comprising a concave portion adapted to receive part of the face of a user and a filtering septum, and - a support apparatus for said face mask which is provided with: ∘ a wearable element comprising an adhesive tape , characterized by ∘ a quick coupling device provided with a first portion and a second portion which are removably fixed to each other and in which the first portion is fixed to the face mask and the second portion is integrally joined with the adhesive tape . ∘ a wearable element comprising an adhesive tape , characterized by ∘ a quick coupling device provided with a first portion and a second portion which are removably fixed to each other and in which the first portion is fixed to the face mask and the second portion is integrally joined with the adhesive tape .
A method of indicating a medium misfeed along a medium transport path comprising: (a) conveying, via one or more rollers , the medium along the medium transport path ; (b) detecting, via a microphone , the sound of the conveyed medium and producing a signal representing the sound; (c) producing, via a processor , sound values from the signal ; and (i) providing, via the processor , a sensitivity setting responsive to the sound values; (ii) computing, via the processor , a moving window sum responsive to the sound values; (iii) computing, via the processor , a high amplitude count responsive to the sound values; (iv) computing, via the processor , a pre roller sum responsive to the sound values; (v) computing, via the processor , a post roller sum responsive to the sound values; and (d) indicating the medium jam responsive to the sensitivity setting, moving window sum, high amplitude count, pre roller sum, or post roller sum. (a) conveying, via one or more rollers , the medium along the medium transport path ; (b) detecting, via a microphone , the sound of the conveyed medium and producing a signal representing the sound; (c) producing, via a processor , sound values from the signal ; and (i) providing, via the processor , a sensitivity setting responsive to the sound values; (ii) computing, via the processor , a moving window sum responsive to the sound values; (iii) computing, via the processor , a high amplitude count responsive to the sound values; (iv) computing, via the processor , a pre roller sum responsive to the sound values; (v) computing, via the processor , a post roller sum responsive to the sound values; and (i) providing, via the processor , a sensitivity setting responsive to the sound values; (ii) computing, via the processor , a moving window sum responsive to the sound values; (iii) computing, via the processor , a high amplitude count responsive to the sound values; (iv) computing, via the processor , a pre roller sum responsive to the sound values; (v) computing, via the processor , a post roller sum responsive to the sound values; and (d) indicating the medium jam responsive to the sensitivity setting, moving window sum, high amplitude count, pre roller sum, or post roller sum.
A hand dishwashing cleaning composition comprising a surfactant system comprising an anionic surfactant and an amine oxide co-surfactant wherein the weight ratio of the surfactant system to the amine oxide is from 1.5:1 to 4.5:1 and wherein the composition further comprises a protease and an enzyme stabilizer selected from the group consisting of: potassium salts of halides, sulfates, sulfites, carbonates, hydrogencarbonates, nitrates, nitrites, phosphates, formates, acetates, propionates, citrates, maleates, tartrates succinates, oxalates and lactates; preferably the enzyme stabilizer comprises potassium acetate.
An isolated polypeptide consisting of the amino acid sequence R1-AA1-AA2-AA3-K-P-Y-I-L-R2 (formula II, SEQ ID NO:2), wherein AA1 is an optional amino acid selected from A, L, I, and V; AA2 is an optional amino acid selected from S, T, G, A, N, E and D; AA3 is an amino acid selected from D, E, and G; R1 defines the N-term (-NH2) or a protection group; R2 defines the C-term (-COOH).
A stand system for arranging a stack of building panels , said stand system comprising at least two similar stands (3, 3', ..), each stand (3, 3', ...) having substantially an L-shape with an substantially right enclosed angle, a substantially right outer angle, and comprising: - substantially parallel side planes a width apart; - a sole for placing a stand (3, 3', ...) on a floor and a coupled rear surface which together with said sole defines the outer angle; - a back surface and a coupled support surface together defining the enclosed angle; - said back surface and said support surface for together supporting a said stack of panels ; - the enclosed angle and the outside angle rotated with respect to one another with the back surface inclined to the rear surface for holding a said stack of panels inclined, characterised in that said stands (3, 3', ...) are produced from plastic and further comprise a honeycomb structure filling said stands (3, 3', ...) and have its cells running between the side planes, said honeycomb structure providing said stands (3, 3', ...) with said width providing said sole with a sole width allowing each stand (3, 3', ...) to stand freely on said sole . - substantially parallel side planes a width apart; - a sole for placing a stand (3, 3', ...) on a floor and a coupled rear surface which together with said sole defines the outer angle; - a back surface and a coupled support surface together defining the enclosed angle; - said back surface and said support surface for together supporting a said stack of panels ; - the enclosed angle and the outside angle rotated with respect to one another with the back surface inclined to the rear surface for holding a said stack of panels inclined, characterised in that
An Ultra Wide Band, UWB, ranging method comprising: filtering (S11), in response to determining a first time of flight for UWB ranging, the first time of flight based on a low-pass filter to obtain a filtered first time of flight; and performing (S12) the UWB ranging based on the filtered first time of flight; said UWB ranging method being characterized in that filtering the first time of flight based on the low-pass filter comprises: determining (S21) a sampling frequency and a cutoff frequency of the low-pass filter; determining (S22) a state transition equation of the low-pass filter based on the sampling frequency and the cut-off frequency of the low-pass filter; and filtering (S23) the first time of flight based on the state transition equation of the low-pass filter. filtering (S11), in response to determining a first time of flight for UWB ranging, the first time of flight based on a low-pass filter to obtain a filtered first time of flight; and performing (S12) the UWB ranging based on the filtered first time of flight; said UWB ranging method being characterized in that filtering the first time of flight based on the low-pass filter comprises: determining (S21) a sampling frequency and a cutoff frequency of the low-pass filter; determining (S22) a state transition equation of the low-pass filter based on the sampling frequency and the cut-off frequency of the low-pass filter; and filtering (S23) the first time of flight based on the state transition equation of the low-pass filter. determining (S21) a sampling frequency and a cutoff frequency of the low-pass filter; determining (S22) a state transition equation of the low-pass filter based on the sampling frequency and the cut-off frequency of the low-pass filter; and filtering (S23) the first time of flight based on the state transition equation of the low-pass filter.
A method of operating a first communication device in a communications network, the method comprising: receiving control information from a second communication device over a control channel, wherein receiving the control information comprises receiving a reference signal with the control channel; receiving a data channel transmission from the second communication device using the control information; determining a feedback message to transmit to the second communication device based on an attempt to decode the data channel transmission; determining a parameter of the control channel by determining a parameter of the reference signal comprising one of: a cyclic shift, a base sequence, a sequence generator initialization value, a code associated with the reference signal, the parameter of the reference signal having been randomly selected by the second communication device; selecting a resource to use for transmitting the feedback message to the second communication device based on the parameter of the control channel; and transmitting the feedback message to the second communication device using the resource. receiving control information from a second communication device over a control channel, wherein receiving the control information comprises receiving a reference signal with the control channel; receiving a data channel transmission from the second communication device using the control information; determining a feedback message to transmit to the second communication device based on an attempt to decode the data channel transmission; determining a parameter of the control channel by determining a parameter of the reference signal comprising one of: a cyclic shift, a base sequence, a sequence generator initialization value, a code associated with the reference signal, the parameter of the reference signal having been randomly selected by the second communication device; selecting a resource to use for transmitting the feedback message to the second communication device based on the parameter of the control channel; and transmitting the feedback message to the second communication device using the resource. a cyclic shift, a base sequence, a sequence generator initialization value, a code associated with the reference signal, the parameter of the reference signal having been randomly selected by the second communication device; selecting a resource to use for transmitting the feedback message to the second communication device based on the parameter of the control channel; and transmitting the feedback message to the second communication device using the resource.
A method for editing media files which are recorded synchronously, the method comprising: receiving a plurality of media files which are recorded synchronously; displaying in a time-aligned manner a plurality of media streams corresponding to the media files on a screen; detecting a touch input; selecting a portion of one of the plurality of media streams corresponding to a position where the touch input is detected and where the portion is displayed; and while the touch input is maintained: detecting a movement of the touch input; automatically scrolling the plurality of media streams along a timeline of the media files based on the detected movement of the touch input; detecting dragging of the touch input and selecting additional portions of the plurality of media streams corresponding to positions of the dragged touch input where the additional portions are displayed; and continuously adding the selected portions of the plurality of media streams to an edited media stream. receiving a plurality of media files which are recorded synchronously; displaying in a time-aligned manner a plurality of media streams corresponding to the media files on a screen; detecting a touch input; selecting a portion of one of the plurality of media streams corresponding to a position where the touch input is detected and where the portion is displayed; and while the touch input is maintained: detecting a movement of the touch input; automatically scrolling the plurality of media streams along a timeline of the media files based on the detected movement of the touch input; detecting dragging of the touch input and selecting additional portions of the plurality of media streams corresponding to positions of the dragged touch input where the additional portions are displayed; and detecting a movement of the touch input; automatically scrolling the plurality of media streams along a timeline of the media files based on the detected movement of the touch input; detecting dragging of the touch input and selecting additional portions of the plurality of media streams corresponding to positions of the dragged touch input where the additional portions are displayed; and continuously adding the selected portions of the plurality of media streams to an edited media stream.