mhurhangee/ep-ind-claims huggingface dataset:
A system for passenger access and ergonomic transit within an enclosed compartment onboard an aircraft, comprising: a corridor onboard the aircraft; a transition compartment onboard the aircraft configured for: a transit from an upper vestibule onboard the aircraft to the corridor; a coordinated presentation of sensory measures within the transition compartment and the corridor directed to a user of the transition compartment and the corridor; the coordinated presentation comprising at least one of: a visual scheme and a tactile scheme; the corridor configured for: 1) the coordinated presentation, 2) an ergonomic passenger movement and 3) a functional passenger transit between the transition compartment and a passenger bunk; at least one hand rail within the corridor configured to assist the ergonomic movement of a passenger moving within the corridor, the at least one hand rail comprises a pair of single pole hand rails longitudinally extending the length of the corridor mounted on opposite walls of the corridor; wherein the transition compartment and the corridor are longitudinally aligned and further configured to be: 1) aligned above a passenger cabin of the aircraft, 2) aligned with the upper vestibule, and 3) aligned along a centerline of the aircraft. a corridor onboard the aircraft; a transition compartment onboard the aircraft configured for: a transit from an upper vestibule onboard the aircraft to the corridor; a coordinated presentation of sensory measures within the transition compartment and the corridor directed to a user of the transition compartment and the corridor; the coordinated presentation comprising at least one of: a visual scheme and a tactile scheme; the corridor configured for: 1) the coordinated presentation, 2) an ergonomic passenger movement and 3) a functional passenger transit between the transition compartment and a passenger bunk; at least one hand rail within the corridor configured to assist the ergonomic movement of a passenger moving within the corridor, the at least one hand rail comprises a pair of single pole hand rails longitudinally extending the length of the corridor mounted on opposite walls of the corridor; wherein the transition compartment and the corridor are longitudinally aligned and further configured to be: 1) aligned above a passenger cabin of the aircraft, 2) aligned with the upper vestibule, and 3) aligned along a centerline of the aircraft.
A display device comprising: a first display in a first plane for displaying a first image; a second display in a second plane for displaying a second image, wherein said first and second planes are approximately parallel to each other; a subpixel compressing structure provided between the first and second displays for reducing moire interference, the subpixel compressing structure comprising a first optical element for compressing red light from a red subpixel, green light from a green subpixel, and blue light from a blue subpixel into a white area, and a second optical element for spreading the white area; wherein the first optical element shifts a position of the red light to a position over the green subpixel and shifts a position of the blue light to a position over the green subpixel, while substantially maintaining position of the green light from the green subpixel, to form the white area; wherein the first optical element comprises a prism or a diffractive grating or a refractive beam mapper; and wherein the second optical element comprises a refractive beam mapper and/or a plurality of microlenses. a first display in a first plane for displaying a first image; a second display in a second plane for displaying a second image, wherein said first and second planes are approximately parallel to each other; a subpixel compressing structure provided between the first and second displays for reducing moire interference, the subpixel compressing structure comprising a first optical element for compressing red light from a red subpixel, green light from a green subpixel, and blue light from a blue subpixel into a white area, and a second optical element for spreading the white area; wherein the first optical element shifts a position of the red light to a position over the green subpixel and shifts a position of the blue light to a position over the green subpixel, while substantially maintaining position of the green light from the green subpixel, to form the white area; wherein the first optical element comprises a prism or a diffractive grating or a refractive beam mapper; and wherein the second optical element comprises a refractive beam mapper and/or a plurality of microlenses.
A method for determining an optimum drive signal for an acoustic transducer in an acoustic probe, the measuring step comprising: generating, by a pulse generator electrically coupled to a 50 S2 load, a pulse to create a wideband signal as a reference signal; obtaining a wideband reference signal V r ( t); obtaining a function V̂ r ( f) that is a Fourier Transform of the wideband reference signal V r ( t); generating a wideband acoustic wave from the acoustic transducer; obtaining a wideband echo signal V e (t) after the acoustic wave being reflected from an acoustic mirror; obtaining a function V̂ e ( f) that is a Fourier Transform of the wideband echo signal V e (t); defining a normalized loop frequency response X̂ ( f): X ^ f = def V ^ e f V ^ r f; defining a normalized loop time response X ( t): X t = def Inverse Fourier Transform of the X̂ ( f); calculating a function G(t) as a self-deconvolution of the normalized loop time response X ( t) or as an Inverse Fourier Transform of a square root of the normalized loop frequency response X̂ ( f); and defining a drive signal B(t) for the acoustic transducer: B t = def α ∗ G t, wherein a coefficient α is determined to multiply the function G ( t). generating, by a pulse generator electrically coupled to a 50 S2 load, a pulse to create a wideband signal as a reference signal; obtaining a wideband reference signal V r ( t); obtaining a function V̂ r ( f) that is a Fourier Transform of the wideband reference signal V r ( t); generating a wideband acoustic wave from the acoustic transducer; obtaining a wideband echo signal V e (t) after the acoustic wave being reflected from an acoustic mirror; obtaining a function V̂ e ( f) that is a Fourier Transform of the wideband echo signal V e (t); defining a normalized loop frequency response X̂ ( f): X ^ f = def V ^ e f V ^ r f; defining a normalized loop time response X ( t): X t = def Inverse Fourier Transform of the X̂ ( f); calculating a function G(t) as a self-deconvolution of the normalized loop time response X ( t) or as an Inverse Fourier Transform of a square root of the normalized loop frequency response X̂ ( f); and defining a drive signal B(t) for the acoustic transducer: B t = def α ∗ G t, wherein a coefficient α is determined to multiply the function G ( t). X t = def Inverse Fourier Transform of the X̂ ( f); calculating a function G(t) as a self-deconvolution of the normalized loop time response X ( t) or as an Inverse Fourier Transform of a square root of the normalized loop frequency response X̂ ( f); and defining a drive signal B(t) for the acoustic transducer: B t = def α ∗ G t, wherein a coefficient α is determined to multiply the function G ( t).
A mixer for generating an analog output signal X OUT from an analog input signal X IN using a mixing signal having an adjustable mixing frequency f MIX, the mixer comprising: a scaler being configured to sample the analog input signal X IN at a plurality of discrete points in time k with a sampling frequency f S to obtain a sampled analog input signal X IN [k] having a continuous signal value, and to generate the analog output signal X OUT having a continuous signal value by scaling the sampled analog input signal X IN [k] on the basis of a plurality of scaling coefficients A[k], wherein the scaling coefficients A[k] are a time-discrete representation of the mixing signal, and the scaling coefficients A[k] are provided by the scaler on the basis of a control code stored in the scaler; wherein the mixer comprises an input terminal and an output terminal connected to the scaler and wherein the scaler comprises a plurality of unit cells connected in parallel to the input terminal, wherein each unit cell comprises a unit cell capacitor, wherein the unit cell capacitor of the i-th unit cell has a capacitance C ui and wherein the sum of the capacitances of the unit cells defines a total capacitance C s, and wherein each unit cell comprises a charge transfer switch for connecting the unit cell capacitor of each unit cell to the output terminal, wherein the scaler is configured to control the charge transfer switch of each unit cell for scaling the sampled analog input signal X IN [k] on the basis of the plurality of scaling coefficients A[k].
An ink formulation comprising: (a) a near infrared absorbing system comprising a compound of the formula M 1 W 1.6 O 6, wherein M 1 is one or more elements selected from the group consisting of H, He, alkali metals such as Li, Na, K, Rb, Cs, alkaline earth metals such as Be, Mg, Ca, Sr, Ba, rare-earth elements, Zr, Cr, Mn, Fe, Ru, Co, Rh, Ir, Ni, Pd, Pt, Cu, Ag, Au, Zn, Cd, Al, Ga, In, Tl, Si, Ge, Sn, Pb, Sb, B, F, P, S, Se, Br, Te, Ti, Nb, V, Mo, Ta, Re, Hf, Os, Bi and I, or ammonium; (b) a colour change agent selected from an inorganic metal oxyanion compound, an organic colour former, and a compound comprising a diacetylene group; and (c) a binder. (a) a near infrared absorbing system comprising a compound of the formula M 1 W 1.6 O 6, wherein M 1 is one or more elements selected from the group consisting of H, He, alkali metals such as Li, Na, K, Rb, Cs, alkaline earth metals such as Be, Mg, Ca, Sr, Ba, rare-earth elements, Zr, Cr, Mn, Fe, Ru, Co, Rh, Ir, Ni, Pd, Pt, Cu, Ag, Au, Zn, Cd, Al, Ga, In, Tl, Si, Ge, Sn, Pb, Sb, B, F, P, S, Se, Br, Te, Ti, Nb, V, Mo, Ta, Re, Hf, Os, Bi and I, or ammonium; (b) a colour change agent selected from an inorganic metal oxyanion compound, an organic colour former, and a compound comprising a diacetylene group; and (c) a binder.
A locking arrangement for a wind turbine having a hub, said hub being adapted to perform rotational movements about a rotational axis, said wind turbine comprising a nacelle having a base frame, the locking arrangement comprising: - the hub and the base frame of the wind turbine, - at least one first locking part, the first locking part(s) being movable along a substantially radial direction relative to the rotational axis of the hub, between a locking position and a release position, and - at least one second locking part, each second locking part being adapted to retain a first locking part when the first locking part is in the locking position, wherein one of the first locking part(s) and the second locking part(s) is/are formed in or mounted on the hub, and the other of the first locking part(s) and the second locking part(s) is/are formed in or mounted on the base frame, a first locking part and a second locking part thereby preventing rotational movement of the hub relative to the base frame when the first locking part is in the locking position, and allowing such movement when the first locking part is in the release position. - the hub and the base frame of the wind turbine, - at least one first locking part, the first locking part(s) being movable along a substantially radial direction relative to the rotational axis of the hub, between a locking position and a release position, and - at least one second locking part, each second locking part being adapted to retain a first locking part when the first locking part is in the locking position, wherein one of the first locking part(s) and the second locking part(s) is/are formed in or mounted on the hub, and the other of the first locking part(s) and the second locking part(s) is/are formed in or mounted on the base frame, a first locking part and a second locking part thereby preventing rotational movement of the hub relative to the base frame when the first locking part is in the locking position, and allowing such movement when the first locking part is in the release position.
Compressible chewing gum composition comprising i) chewing gum granules containing gum base ii) particles of one or more encapsulation delivery systems comprising at least one encapsulation material and at least one active ingredient being encapsulated by the encapsulation material, wherein the encapsulation material comprises at least one natural resin and wherein said encapsulation material further comprises polyvinyl acetate, and wherein there is a ratio of said natural resin to said polyvinyl acetate in the range of 95:5 to 5:95, preferably in the range of 70:30 to 15:85 such as in the range of 60:40 to 20:80. i) chewing gum granules containing gum base ii) particles of one or more encapsulation delivery systems comprising at least one encapsulation material and at least one active ingredient being encapsulated by the encapsulation material,
A method for estimating an amount of toner remaining in a reservoir of a replaceable unit for an image forming device, the method comprising: receiving pulses from a magnetic sensor by processing circuitry on the replaceable unit, each pulse indicative that the magnetic sensor detected a magnet on a moving paddle mounted on a rotatable shaft positioned in the reservoir, the paddle being rotatable independent of the rotatable shaft counting by the processing circuitry the number of the pulses received from the magnetic sensor; and upon receiving by the processing circuitry a request from a controller of the image forming device in communication with the processing circuitry for the count of the pulses received from the magnetic sensor when the controller determines that the rotatable shaft has completed a revolution, sending by the processing circuitry to the controller of the image forming device the count of the pulses received from the magnetic sensor and resetting by the processing circuitry the count of the pulses received from the magnetic sensor. receiving pulses from a magnetic sensor by processing circuitry on the replaceable unit, each pulse indicative that the magnetic sensor detected a magnet on a moving paddle mounted on a rotatable shaft positioned in the reservoir, the paddle being rotatable independent of the rotatable shaft counting by the processing circuitry the number of the pulses received from the magnetic sensor; and upon receiving by the processing circuitry a request from a controller of the image forming device in communication with the processing circuitry for the count of the pulses received from the magnetic sensor when the controller determines that the rotatable shaft has completed a revolution, sending by the processing circuitry to the controller of the image forming device the count of the pulses received from the magnetic sensor and resetting by the processing circuitry the count of the pulses received from the magnetic sensor.
A reduced-pressure treatment system for debriding a treatment area of a tissue site, the system comprising: a hydrogel adapted to cover the treatment area, wherein the hydrogel comprises a blocked acid debriding agent; a manifold adapted to cover the hydrogel and distribute reduced pressure to the tissue site; and a sealing drape for placing over the tissue site and manifold, the sealing drape adapted to form a fluid seal over the tissue site and manifold. a hydrogel adapted to cover the treatment area, wherein the hydrogel comprises a blocked acid debriding agent; a manifold adapted to cover the hydrogel and distribute reduced pressure to the tissue site; and a sealing drape for placing over the tissue site and manifold, the sealing drape adapted to form a fluid seal over the tissue site and manifold.
One or more biodegradable drug depots for use in treating or preventing pain and/or inflammation in a patient in need of such treatment, the use comprising administering one or more of said biodegradable drug depots comprising a therapeutically effective amount of an alpha-2 adrenergic agonist comprising clonidine or clonidine hydrochloride, a beta-2 adrenergic agonist comprising ritodrine, salbutamol or terbutaline, and a polymer comprising 60% to 99% of the total weight % of the drug depot in which the polymer is selected from poly (lactide-co-glycolide) (PLGA), polylactide, polyglycolide, D-lactide, D,L-lactide, L-lactide, D,L-lactide-co-caprolactone, D,L-lactide-co-glycolide-co-caprolactone or a combination thereof, to a target tissue site beneath the skin of the patient, wherein the drug depot releases an effective amount of the alpha adrenergic agonist and the beta adrenergic agonist over a period of at least 1 day.
An aerosol generating assembly comprising an aerosol generating substrate and a heater which is configured to heat but not burn the aerosol generating material, wherein the aerosol generating substrate comprises an aerosol generating material, the aerosol generating material comprising an amorphous solid, the amorphous solid comprising: - 1-60 wt% of a gelling agent; - 0.1-50 wt% of an aerosol generating agent; and - 0.1-80 wt% of a flavour; wherein these weights are calculated on a dry weight basis; wherein the aerosol generating material has an area density of from 30 to 120 g/m 2. - 1-60 wt% of a gelling agent; - 0.1-50 wt% of an aerosol generating agent; and - 0.1-80 wt% of a flavour; wherein these weights are calculated on a dry weight basis; wherein the aerosol generating material has an area density of from 30 to 120 g/m 2.
A method in a computing device for notifying users of upcoming loss of offline data coverage when navigating the user along an offline route, the method comprising: receiving a request for navigation directions for travelling from a source location to a destination location; generating, using one or more processors, navigation directions for travelling from the source location to the destination using data that was stored in a memory of the computing device prior to the request, the navigation directions defining an offline navigation route; determining, during navigation along the offline navigation route, using one or more processors that the offline navigation route traverses an area of at least a certain size, for which the memory of the computing device stores no offline data or only limited data related to places disposed along the offline navigation route; and in response to determining that the computing device traveling along the offline navigation route is within a certain threshold distance of a boundary of the area, automatically providing a notification via a user interface of the computing device, wherein the notification indicates that the computing device cannot generate alternate routes or return routes if the computing device deviates from the offline navigation route in the area. receiving a request for navigation directions for travelling from a source location to a destination location; generating, using one or more processors, navigation directions for travelling from the source location to the destination using data that was stored in a memory of the computing device prior to the request, the navigation directions defining an offline navigation route; determining, during navigation along the offline navigation route, using one or more processors that the offline navigation route traverses an area of at least a certain size, for which the memory of the computing device stores no offline data or only limited data related to places disposed along the offline navigation route; and in response to determining that the computing device traveling along the offline navigation route is within a certain threshold distance of a boundary of the area, automatically providing a notification via a user interface of the computing device, wherein the notification indicates that the computing device cannot generate alternate routes or return routes if the computing device deviates from the offline navigation route in the area.
A method of analysing a target comprising ex vivo or in vitro biological tissue, a bacterial or fungal colony, or a plastic comprising: obtaining or acquiring image data from one or more regions of the target; using said image data to determine one or more regions of interest of said target; using a first device to generate aerosol, smoke or vapour from said one or more regions of interest of said target, wherein said first device comprises or forms part of an ambient ion or ionisation source or wherein said first device generates said aerosol, smoke or vapour for subsequent ionisation by an ambient ion or ionisation source or other ionisation source; mixing said aerosol, smoke or vapour with a matrix and directing or aspirating at least some of said aerosol, smoke or vapour into a vacuum chamber of a mass spectrometer and/or ion mobility spectrometer; causing said aerosol, smoke or vapour to impact upon a collision surface located within a vacuum chamber of said mass spectrometer and/or ion mobility spectrometer so as to generate a plurality of analyte ions; and mass analysing and/or ion mobility analysing said aerosol, smoke or vapour or ions derived from said aerosol, smoke or vapour in order to obtain mass spectrometric data and/or ion mobility data. obtaining or acquiring image data from one or more regions of the target; using said image data to determine one or more regions of interest of said target; using a first device to generate aerosol, smoke or vapour from said one or more regions of interest of said target, wherein said first device comprises or forms part of an ambient ion or ionisation source or wherein said first device generates said aerosol, smoke or vapour for subsequent ionisation by an ambient ion or ionisation source or other ionisation source; mixing said aerosol, smoke or vapour with a matrix and directing or aspirating at least some of said aerosol, smoke or vapour into a vacuum chamber of a mass spectrometer and/or ion mobility spectrometer; causing said aerosol, smoke or vapour to impact upon a collision surface located within a vacuum chamber of said mass spectrometer and/or ion mobility spectrometer so as to generate a plurality of analyte ions; and mass analysing and/or ion mobility analysing said aerosol, smoke or vapour or ions derived from said aerosol, smoke or vapour in order to obtain mass spectrometric data and/or ion mobility data.