mhurhangee/ep-ind-claims huggingface dataset:
A roof rail (18; 118; 218) assembly for a vehicle roof, comprising: a plurality of mounting portions attached to a vehicle arranged to allow stowing of cargo; at least one roof rail (118; 218) coupled to the plurality of mounting portions; a stanchion portion (112; 212) coupled to each end of the at least one roof rail (118; 218) and having a cover (114; 214); and at least one lighting module assembly (130; 230) including at least one lighting device (116; 216); a lens (126; 226) to direct illumination of the at least one lighting device (116; 216); and a film (112; 212) back injected with a light transmissive plastic material (123; 223), where the stanchion portion (112; 212) provides a predetermined surface appearance when the at least one lighting device (116; 216) is not actuated and which allows light to pass through the film (112; 212) under predetermined conditions upon illumination of the at least one lighting device (116; 216). a plurality of mounting portions attached to a vehicle arranged to allow stowing of cargo; at least one roof rail (118; 218) coupled to the plurality of mounting portions; a stanchion portion (112; 212) coupled to each end of the at least one roof rail (118; 218) and having a cover (114; 214); and at least one lighting module assembly (130; 230) including at least one lighting device (116; 216); a lens (126; 226) to direct illumination of the at least one lighting device (116; 216); and a film (112; 212) back injected with a light transmissive plastic material (123; 223), where the stanchion portion (112; 212) provides a predetermined surface appearance when the at least one lighting device (116; 216) is not actuated and which allows light to pass through the film (112; 212) under predetermined conditions upon illumination of the at least one lighting device (116; 216).
An aqueous photo-protective personal care composition having SPF higher than 10 and a UVAPF equal to or higher than 2, comprising less than 15 % w/w total organic sunscreen comprising (i) 0.1 to 10 % w/w of a UVA sunscreen which is a dibenzoylmethane; (ii) 0.1 to 10 % w/w of a UVB sunscreen; (iii) 3 to 50 % w/w of an emollient having a Hansen Solubility Parameter between 12.4 to 22.0 MPa 1/2 at 25°C selected from the group consisting of (a) ester of alkoxylated aromatic alcohol with fatty carboxylic acid, (b) esters of polyglycols or diols with fatty carboxylic acid such as caprylic/capric triglyceride, (c) ester of fatty alcohol and fatty acid; (d) alkoxylated derivative of benzyl alcohol and mixtures thereof; (iv) 5 to 70% of a cosmetically acceptable base comprising (a) 5 to 95 % of a volatile silicone by weight of said base selected from octa methyl cyclo tetra siloxane, deca methyl cyclo penta siloxane, dodecamethyl cyclo hexa siloxane, blends of methyl trimethicone and dimethicone and mixtures thereof, the volatile silicone having a vapor pressure value at 25°C of 2.6 to 1400 Pa, and a heat of vaporization value of 21 to 84 kJ/mole and (b) 5 to 95% of a silicone elastomer by weight of said base; (v) 10 to 70% w/w/ water. (i) 0.1 to 10 % w/w of a UVA sunscreen which is a dibenzoylmethane; (ii) 0.1 to 10 % w/w of a UVB sunscreen; (iii) 3 to 50 % w/w of an emollient having a Hansen Solubility Parameter between 12.4 to 22.0 MPa 1/2 at 25°C selected from the group consisting of (a) ester of alkoxylated aromatic alcohol with fatty carboxylic acid, (b) esters of polyglycols or diols with fatty carboxylic acid such as caprylic/capric triglyceride, (c) ester of fatty alcohol and fatty acid; (d) alkoxylated derivative of benzyl alcohol and mixtures thereof; (iv) 5 to 70% of a cosmetically acceptable base comprising (a) 5 to 95 % of a volatile silicone by weight of said base selected from octa methyl cyclo tetra siloxane, deca methyl cyclo penta siloxane, dodecamethyl cyclo hexa siloxane, blends of methyl trimethicone and dimethicone and mixtures thereof, the volatile silicone having a vapor pressure value at 25°C of 2.6 to 1400 Pa, and a heat of vaporization value of 21 to 84 kJ/mole and (b) 5 to 95% of a silicone elastomer by weight of said base; (v) 10 to 70% w/w/ water.
A method of configuring signal processing parameters of a hearing assistance apparatus for a listener using a cell phone, the method comprising: selecting a plurality of signal processing parameters to control; selecting a plurality of presets, including a setting for each of the plurality of signal processing parameters, at least one parameter of the plurality of signal processing parameters chosen to span at least one parameter space of interest; displaying the plurality of presets on an N-dimensional space on a display of the cell phone; recording the listener's organization of the plurality of presets in the N-dimensional space based on sound heard by the listener from the hearing assistance device processed according to the signal processing parameters at each preset; constructing a mapping of coordinates of an N-dimensional space to the plurality of signal processing parameters using interpolation of the presets as organized by the user in the N-dimensional space; generating interpolated signal processing parameters from coordinates associated with a cursor position in the N-dimensional space according to the mapping; and providing the interpolated signal processing parameters to the hearing assistance apparatus wirelessly from the cell phone. selecting a plurality of signal processing parameters to control; selecting a plurality of presets, including a setting for each of the plurality of signal processing parameters, at least one parameter of the plurality of signal processing parameters chosen to span at least one parameter space of interest; displaying the plurality of presets on an N-dimensional space on a display of the cell phone; recording the listener's organization of the plurality of presets in the N-dimensional space based on sound heard by the listener from the hearing assistance device processed according to the signal processing parameters at each preset; constructing a mapping of coordinates of an N-dimensional space to the plurality of signal processing parameters using interpolation of the presets as organized by the user in the N-dimensional space; generating interpolated signal processing parameters from coordinates associated with a cursor position in the N-dimensional space according to the mapping; and providing the interpolated signal processing parameters to the hearing assistance apparatus wirelessly from the cell phone.
A particle dispersion chamber comprising: a housing having an external surface and an internal channel having a user output opening; and a plurality of directional air outputs (90, 105) positioned along and communicating with the internal channel, the direction of the air outputs suitable to create a vortical flow of aerosolized particles within the internal channel, characterized in that said internal channel of the particle dispersion chamber is configured as vortex continuing channel to provide for continuation of the vortical flow from the air outputs to and including the user output opening such that said aerosolized particles emerge from said particle dispersion chamber in said vortex movement. a housing having an external surface and an internal channel having a user output opening; and a plurality of directional air outputs (90, 105) positioned along and communicating with the internal channel, the direction of the air outputs suitable to create a vortical flow of aerosolized particles within the internal channel, characterized in that said internal channel of the particle dispersion chamber is configured as vortex continuing channel to provide for continuation of the vortical flow from the air outputs to and including the user output opening such that said aerosolized particles emerge from said particle dispersion chamber in said vortex movement.
A display device comprising: a display substrate; an opposing substrate opposing the display substrate; and a light amount control layer disposed between the display substrate and the opposing substrate, wherein the display substrate comprises: a first substrate; a thin film transistor disposed on the first substrate; and a pixel electrode connected to the thin film transistor, wherein the opposing substrate comprises: a second substrate; a color conversion layer disposed on the second substrate; and a first polarizer disposed on the color conversion layer, wherein the first polarizer comprises: a base substrate; and a linear polarizer disposed on one surface of the base substrate, wherein the first polarizer opposes the pixel electrode, and wherein the one surface of the base substrate on which the linear polarizer is disposed has a flatness of about 60 nm or less. a display substrate; an opposing substrate opposing the display substrate; and a light amount control layer disposed between the display substrate and the opposing substrate, a first substrate; a thin film transistor disposed on the first substrate; and a pixel electrode connected to the thin film transistor, a second substrate; a color conversion layer disposed on the second substrate; and a first polarizer disposed on the color conversion layer, a base substrate; and a linear polarizer disposed on one surface of the base substrate, wherein the first polarizer opposes the pixel electrode, and wherein the one surface of the base substrate on which the linear polarizer is disposed has a flatness of about 60 nm or less.
A method of calculating an analytical representation of a flight path corresponding to a series of sensor data having position and time measurements, the method comprising the step of applying Kalman-smoothing to the series of data to generate a vector of track states, characterised in that the method further comprises a path approximation step of fitting a polygon chain to the vector of track states and fitting the polygon chain to the set of measurements and using the polygon chain to calculate the analytical representation of the flight path.
Dental tool comprising a work head which is rotatable about an axis of rotation, is fixed to a shaft, and is provided with blades (4, 5), wherein uniformly distributed blades of a first toothing are formed on the entire circumference of the work head, wherein blades of a second toothing are formed in addition to the first toothing on individual circle-sector-like sub-regions, which each have an angular range of approximately 90° with respect to a section plane perpendicular to the axis and which extend only over part of the circumference of the work head, and wherein circle-sector-like regions are formed the on the end face of the work head, and are each formed, alternately in the circumferential direction, from the incoming blades of the first toothing or the converging blades of the second toothing.
Method of manufacturing slipring brushes, comprising providing a continuous body of a metal wire or metal band, electroplating sections thereof by at least one contact material and cutting the continuous body into individual slip ring brushes.
A method of manufacturing an article, comprising: taking an article formed in an initial state via an additive manufacturing process; and performing a second manufacturing process to transform the article into a second state, which comprises mounting the article in a holding device of a machine for operating on the article, processing at least one first feature on the article, processing at least one mounting feature on the article, re-mounting the article via the at least one mounting feature, and then processing at least one second feature on the article, in which the at least one mounting feature comprises a kinematic mounting feature. taking an article formed in an initial state via an additive manufacturing process; and performing a second manufacturing process to transform the article into a second state, which comprises mounting the article in a holding device of a machine for operating on the article, processing at least one first feature on the article, processing at least one mounting feature on the article, re-mounting the article via the at least one mounting feature, and then processing at least one second feature on the article,
Method for operating a plurality of wind turbines (14, 15, 16), in which a first current estimated wind value is derived from operating parameters of a first wind turbine and in which a second current estimated wind value is derived from operating parameters of a second wind turbine, wherein a prediction model is applied in order to derive, from the first estimated wind value and the second estimated wind value, a wind prediction, applicable to a future point in time, for a third wind turbine, wherein the wind prediction is processed in a controller in order to generate a control signal for the third wind turbine that takes effect before the future point in time, and wherein, in the case of a change in the wind direction, the prediction model determines the time span between the current point in time and the future point in time as the sum of a delay time, which is derived from the current wind speed, and of an additional time, which represents a wake of the first wind turbine and/or second wind turbine.
A latch system comprising: an actuation module having first and second actuation mechanisms (110, 90), the first actuation mechanism including a first handle, a lock tab and an inner rod coupled together, the second actuation mechanism including at least one second handle (76a, 76b), a conversion block and an outer rod coupled together, the outer rod and the conversion block each having a slot (86, 84), wherein the slot of the outer rod is aligned with the slot of the conversion block; at least one latch module (54a, 54b, 54c) having a retractable latch; at least one control cable (56a, 56b, 56c) connecting the conversion block and the at least one latch module (54a, 54b, 54c) such that rotation of the conversion block in a first direction retracts the latch; and a lock operably engagable with the lock tab to selectively allow and prevent rotation of the inner rod; wherein, the inner rod is at least partially disposed within the outer rod with the lock tab at least partially disposed within the slot of the conversion block such that rotation of the inner rod in the first direction rotates the conversion block; and wherein, rotation of the outer rod in the first direction rotates the conversion block without rotating the inner rod such that the second actuation mechanism operates independently of the first actuation mechanism. an actuation module having first and second actuation mechanisms (110, 90), the first actuation mechanism including a first handle, a lock tab and an inner rod coupled together, the second actuation mechanism including at least one second handle (76a, 76b), a conversion block and an outer rod coupled together, the outer rod and the conversion block each having a slot (86, 84), wherein the slot of the outer rod is aligned with the slot of the conversion block; at least one latch module (54a, 54b, 54c) having a retractable latch; at least one control cable (56a, 56b, 56c) connecting the conversion block and the at least one latch module (54a, 54b, 54c) such that rotation of the conversion block in a first direction retracts the latch; and a lock operably engagable with the lock tab to selectively allow and prevent rotation of the inner rod; wherein, the inner rod is at least partially disposed within the outer rod with the lock tab at least partially disposed within the slot of the conversion block such that rotation of the inner rod in the first direction rotates the conversion block; and wherein, rotation of the outer rod in the first direction rotates the conversion block without rotating the inner rod such that the second actuation mechanism operates independently of the first actuation mechanism.
A method of forming a non-metallic coating on a surface of a metallic or semi-metallic substrate comprising the steps of, positioning the substrate in an electrolysis chamber containing an aqueous electrolyte, the aqueous electrolyte being an alkaline solution, and an electrode, at least the surface of the substrate and a portion of the electrode contacting the aqueous electrolyte, and electrically biasing the substrate with respect to the electrode by applying a sequence of voltage pulses of alternating polarity for a predetermined period of time, positive voltage pulses anodically biasing the substrate with respect to the electrode and negative voltage pulses cathodically biasing the substrate with respect to the electrode, in which the voltage pulses have a pulse repetition frequency of between 0.1 and 20 kHz, and in which the amplitude of the positive voltage pulses is potentiostatically controlled, and the amplitude of the negative voltage pulses is galvanostatically controlled, in which both the positive and negative voltage pulses are substantially trapezoidal in shape, in which the amplitude of each of the positive voltage pulses is between 200 volts and 2000 volts and is constant over the predetermined period of time, in which each positive voltage pulse comprises an interval during which the voltage is increased (T ai) and an interval during which voltage is decreased (T ad) and/or each negative voltage pulse comprises an interval during which the voltage is increased (T ci) and an interval during which voltage is decreased (T cd), and in which each of the intervals during which voltage is increased or decreased comprises between 3% and 30% of the total pulse duration, said substrate comprising a metal selected from the group consisting of aluminium, magnesium, titanium, zirconium, tantalum, beryllium, or an alloy or intermetallic of any of these metals, or being made from silicon, germanium or gallium arsenide.
A CAN transceiver including: a first terminal adapted to receive a transmit signal (CANTXD) from a CAN microcontroller; means to subsequently transmit signals derived from said transmit signal (CANTXD) to a CAN bus via a bus connection, wherein the bus connection includes CAN high (CANH) and CAN low (CANL) lines with a voltage difference signal (VDiff) being a difference in voltage between the CAN high (CANH) and CAN low (CANL) lines; means to receive signals from said CAN bus via said bus connection; a second terminal adapted to send a receive signal (CANRXD) derived from said signals received from said CAN bus to said CAN microcontroller; wherein said transmit and receive signals (CANTXD, CANRXD) comprise a pulsed signal waveform, said pulsed signal waveform representing data bits; and means to apply a deliberate delay to a rising edge of pulses of said transmit signal (CANTXD) and a deliberate delay to a falling edge of the receive signal (CANRXD) consequent to the rising edge of pulses of said voltage difference signal (VDiff), or apply a deliberate delay to a falling edge of pulses of said transmit signal (CANTXD) and a deliberate delay to a rising edge of the receive signal (CANRXD) consequent to the falling edge of pulses of said voltage difference signal (VDiff), and, where pulses of single bit duration transmitted to said CAN bus have a width of Tbit (bus) and said means to apply a deliberate delay to the rising edge or the falling edge of the pulses of said transmit signal (CANTXD) provides variation in said width. a first terminal adapted to receive a transmit signal (CANTXD) from a CAN microcontroller; means to subsequently transmit signals derived from said transmit signal (CANTXD) to a CAN bus via a bus connection, wherein the bus connection includes CAN high (CANH) and CAN low (CANL) lines with a voltage difference signal (VDiff) being a difference in voltage between the CAN high (CANH) and CAN low (CANL) lines; means to receive signals from said CAN bus via said bus connection; a second terminal adapted to send a receive signal (CANRXD) derived from said signals received from said CAN bus to said CAN microcontroller; wherein said transmit and receive signals (CANTXD, CANRXD) comprise a pulsed signal waveform, said pulsed signal waveform representing data bits; and means to apply a deliberate delay to a rising edge of pulses of said transmit signal (CANTXD) and a deliberate delay to a falling edge of the receive signal (CANRXD) consequent to the rising edge of pulses of said voltage difference signal (VDiff), or apply a deliberate delay to a falling edge of pulses of said transmit signal (CANTXD) and a deliberate delay to a rising edge of the receive signal (CANRXD) consequent to the falling edge of pulses of said voltage difference signal (VDiff), and, where pulses of single bit duration transmitted to said CAN bus have a width of Tbit (bus) and said means to apply a deliberate delay to the rising edge or the falling edge of the pulses of said transmit signal (CANTXD) provides variation in said width.
A composition for treating damaged or diseased bone in a patient, comprising endothelial progenitor cells (EPCs) and mesenchymal stem cells (MSCs), wherein the composition includes the EPCs and MSCs in a respective cell number ratio of at least 2:1, wherein the composition also comprises a solid carrier material, and wherein the solid carrier material comprises a collagenous extracellular matrix tissue material that includes native heparin from a source tissue for the collagenous ECM tissue material.
A method, performed by a computing system (22,12), of detecting and responding to rendering of video content by a video presentation device, wherein the video content includes (i) a pre-established video segment that does not vary based on user-interaction during the rendering and (ii) a dynamically-defined video segment that varies based on user-interaction during the rendering, the method comprising: obtaining by the computing system a query fingerprint generated in real-time during the rendering as a representation of the video content being rendered, the query fingerprint including a first portion representing the pre-established video segment and a second portion representing the dynamically-defined video segment; while obtaining the query fingerprint, the computing system (a) detecting a match between the first portion of the query fingerprint and a reference fingerprint that represents the pre-established video segment, (b) based on the detecting of the match, identifying the video content being rendered, (c) after identifying the video content being rendered, applying a trained neural network to at least the second portion of the query fingerprint, and (d) detecting, based on the applying of the neural network, that rendering of the identified video content continues; and responsive to at least the detecting that rendering of the identified video content continues, the computing system taking action specific to the identified video content. obtaining by the computing system a query fingerprint generated in real-time during the rendering as a representation of the video content being rendered, the query fingerprint including a first portion representing the pre-established video segment and a second portion representing the dynamically-defined video segment; while obtaining the query fingerprint, the computing system (a) detecting a match between the first portion of the query fingerprint and a reference fingerprint that represents the pre-established video segment, (b) based on the detecting of the match, identifying the video content being rendered, (c) after identifying the video content being rendered, applying a trained neural network to at least the second portion of the query fingerprint, and (d) detecting, based on the applying of the neural network, that rendering of the identified video content continues; and responsive to at least the detecting that rendering of the identified video content continues, the computing system taking action specific to the identified video content.