mhurhangee/ep-ind-claims huggingface dataset:
A liquid crystal optical device providing beam steering multiple refractive or refractive Fresnel lens type element control over light passing through an aperture, the device comprising: a layer of liquid crystal material contained by substrates (11 a, 11b, 111) having alignment layers; and an arrangement of electrodes (13, 14a-14f, 15, 114, 114A-114D, 115) configured to provide a spatially varying voltage distribution within a number of micro element zones within said liquid crystal layer; wherein the liquid crystal optical device is structured to provide a spatial variation in the optical phase delay with an abrupt transition at a boundary between micro elements that is an approximation of a sawtooth waveform across the boundaries of multiple micro elements to increases the effective aperture of the optical device, and characterized in that said arrangement of electrodes (13, 14a-14f, 15) comprises: a patterned electrode structure comprising strip electrodes (114, 114A, 114B) on one of said substrates and middle electrodes (114C, 114D) on another of said substrates positioned near a middle of said steering elements and offset from a position opposite said strip electrodes (114, 114A, 114B) such that an electric field between said strip electrodes (114, 114A, 114B) and said middle electrodes (114C, 114D) provides a strong field with reduced fringe fields near an offset between said strips electrodes (114, 114A, 114B) and said middle electrodes (114C, 114D) and a gradually reducing electric field across said middle electrodes (114C, 114D) without needing a weakly conductive material for distributing voltage from the electrodes over an aperture of the zones. a layer of liquid crystal material contained by substrates (11 a, 11b, 111) having alignment layers; and an arrangement of electrodes (13, 14a-14f, 15, 114, 114A-114D, 115) configured to provide a spatially varying voltage distribution within a number of micro element zones within said liquid crystal layer;
A filter comprising a filtration membrane coated with a polymer-carbon-based nanomaterial nanocomposite, characterized in that said polymer is poly-N-vinyl carbazole and said carbon-based nanomaterial is graphene oxide functionalised with a chelating agent.
A system for replacing an inflamed and/or infected valve of the heart, wherein the system comprises the following: - a stent system comprising at least one expandable stent; and - a replacement heart valve which is affixed to the at least one stent and comprises at least two heart valve leaflets; wherein the at least one stent preferably has an interior and/or exterior coating comprising an antimicrobial substance or an antimicrobial-acting su bstrate, characterized in that the system comprises a skirt region, wherein a first area of the skirt region is provided on the inner side and a second area of the skirt region is provided on the outer side of the at least one stent, wherein at least one chamber able to be filled with a substance is provided in or on the skirt region which is designed such that the substance accommodated in the chamber of the at least one stent can be released to the surrounding tissue. - a stent system comprising at least one expandable stent; and - a replacement heart valve which is affixed to the at least one stent and comprises at least two heart valve leaflets;
Vehicle comprising: - a current converter comprising a converter control device (OBCDC), - a vehicle supervision computer connected to the converter control device (OBCDC), - a first electrical network and a second electrical network interconnected by the current converter, this second electrical network comprising a utility battery recharged by the current converter, the converter control device (OBCDC) being arranged so as to send an alert to the supervision computer in the event of a malfunction in the charging of the utility battery by the current converter, the supervision computer being configured so as to check the persistence of the alert after a predetermined time, characterized in that the vehicle comprises a box (BECB) for determining the state of charge of the utility battery connected to the supervision computer, the supervision computer being configured so as to control the immobilization of the vehicle when the state of charge of the utility battery is lower than a predetermined threshold and the persistence of the alert is verified. - a current converter comprising a converter control device (OBCDC), - a vehicle supervision computer connected to the converter control device (OBCDC), - a first electrical network and a second electrical network interconnected by the current converter,
An expansion joint that absorbs displacement occurring at a point of connection between upstream and downstream pipes (77, 78) through which a powdery and/or granular material is transferred by gravity, the expansion joint comprising: an outer tube including opposite first and second ends and extending from the first end to the second end in an axial direction of the expansion joint, the outer tube further including a first flange and a second flange, the first flange being located at the first end, the second flange being located at the second end and connectable to the downstream pipe; an inner tube including opposite third and fourth ends and extending from the third end to the fourth end in the axial direction, the inner tube being located inside the outer tube and further including a third flange, the third flange being located at the third end and connectable to the upstream pipe; and a closure including an outer peripheral portion connected to the first flange, an inner peripheral portion, and an elastic portion connecting the outer peripheral portion to the inner peripheral portion, characterized in that the inner tube further includes a middle flange located at a middle portion between the third and fourth ends, wherein the inner peripheral portion is connected to the middle flange, wherein the first end is spaced from the third end in the axial direction and located between the third and fourth ends in the axial direction. an outer tube including opposite first and second ends and extending from the first end to the second end in an axial direction of the expansion joint, the outer tube further including a first flange and a second flange, the first flange being located at the first end, the second flange being located at the second end and connectable to the downstream pipe; an inner tube including opposite third and fourth ends and extending from the third end to the fourth end in the axial direction, the inner tube being located inside the outer tube and further including a third flange, the third flange being located at the third end and connectable to the upstream pipe; and a closure including an outer peripheral portion connected to the first flange, an inner peripheral portion, and an elastic portion connecting the outer peripheral portion to the inner peripheral portion, characterized in that the inner tube further includes a middle flange located at a middle portion between the third and fourth ends, wherein the inner peripheral portion is connected to the middle flange, wherein the first end is spaced from the third end in the axial direction and located between the third and fourth ends in the axial direction.
An enclosure for recess mounting of a camera or camera head in a recess of a surface, the enclosure comprising; an attachment portion, which when in use is adapted to be fixed relative to said recess, a cable sealing portion having an opening allowing a cable attached or adapted to be attached to said camera or camera head to extend through the opening and out of the enclosure, the cable sealing portion being adapted to seal against an outer surface of the cable extending through the cable sealing portion, and a circumferential wall portion adapted to extend along a closed path in a circumferential direction and in a first direction extending from the attachment portion towards the cable sealing portion, which first direction in use of the enclosure is adapted to extend into the recess, and wherein the enclosure is adapted to in use provide a cavity inside which a camera or camera head located in the recess is positioned, characterised in that at least a portion of the circumferential wall portion is formed of a flexible and/or elastic material such that the cable sealing portion is movable relative the attachment portion.
Part (11, 12, 13, 14, 15, 16, 17, 18, 19) comprising fastening means for fastening to another part so as to form all or part of a ball game board; the part comprising a plurality of cavities arranged in a two-dimensional ordered array on a first surface of said part, each cavity being designed to receive a ball; said part comprising means for reversible fastening (51, 52, 53) to another similar part along a fastening border; characterized in that said fastening means are formed by: - a plurality of overhangs each comprising at least one cavity of said plurality of cavities; and - a plurality of indentations designed to receive the overhangs from another similar part. - a plurality of overhangs each comprising at least one cavity of said plurality of cavities; and - a plurality of indentations designed to receive the overhangs from another similar part.
A method for controlling a controllable device, the method being performed by the controllable device, comprising: establishing a cellular network connection with a base station after a start-up operation is completed; establishing a wireless fidelity, WIFI, network connection with a control apparatus for controlling the controllable device after establishing the cellular network connection with the base station; and transmitting control signaling with the base station through the cellular network connection and transmitting data with the control apparatus through the WIFI network connection, wherein the control signaling is signaling for controlling the controllable device to perform a corresponding operation, wherein the controllable device is a multi-mode controllable device supporting both a cellular communication mode and a WIFI communication mode; wherein the controllable device is an unmanned aerial vehicle; and performing the corresponding operation according to the control signaling comprises: performing at least one of a take-off operation, a landing operation, an operation of flying along a preset trajectory and a data acquisition operation according to the control signaling. establishing a cellular network connection with a base station after a start-up operation is completed; establishing a wireless fidelity, WIFI, network connection with a control apparatus for controlling the controllable device after establishing the cellular network connection with the base station; and transmitting control signaling with the base station through the cellular network connection and transmitting data with the control apparatus through the WIFI network connection, wherein the control signaling is signaling for controlling the controllable device to perform a corresponding operation, wherein the controllable device is a multi-mode controllable device supporting both a cellular communication mode and a WIFI communication mode; wherein the controllable device is an unmanned aerial vehicle; and performing the corresponding operation according to the control signaling comprises: performing at least one of a take-off operation, a landing operation, an operation of flying along a preset trajectory and a data acquisition operation according to the control signaling.
An inline calibration module for dynamic scattering parameter test system calibration in a test environment, having at least three switchable calibration impedances independent from one another having in each case a predetermined impedance value, in each case designating calibration standards independent from one another, having an output, which is configured to couple the calibration module to a device to be tested, having a control input configured as a serial bus interface, which is configured to couple the calibration module for the control of same to an external controller. having at least three switchable calibration impedances independent from one another having in each case a predetermined impedance value, in each case designating calibration standards independent from one another, having an output, which is configured to couple the calibration module to a device to be tested, having a control input configured as a serial bus interface, which is configured to couple the calibration module for the control of same to an external controller.
A method for set management in a broadcast communication system, comprising: receiving at a subscriber station a first list identifying a first set of sectors that are part of the sector's soft handoff, SHO, group for each supported broadcast channel; assigning at the subscriber station identifiers of the sectors in the provided first list into a Neighbour Set; measuring at the subscriber station a quality metric of a forward link transmitted by each identified sector; removing from said Neighbour Set at the subscriber station an identifier of a sector whose measured quality metric exceeds a first predetermined level; and placing the identifier of the sector directly into an Active Set at the subscriber station without placing it before into a Candidate Set. receiving at a subscriber station a first list identifying a first set of sectors that are part of the sector's soft handoff, SHO, group for each supported broadcast channel; assigning at the subscriber station identifiers of the sectors in the provided first list into a Neighbour Set; measuring at the subscriber station a quality metric of a forward link transmitted by each identified sector; removing from said Neighbour Set at the subscriber station an identifier of a sector whose measured quality metric exceeds a first predetermined level; and placing the identifier of the sector directly into an Active Set at the subscriber station without placing it before into a Candidate Set.
Light device for a motor vehicle comprising at least one power supply control device for light sources, the power supply control device (100, 200) for light sources comprising - a DC-to-DC converter (110, 210) which can convert an input electrical voltage into an output electrical voltage; - a converter (110, 210) load-mounted circuit (120, 220) comprising at least one light source; - converter (110, 210) automatic control means (130, 230) forming an automatic loop control for the converter, the automatic control means (130, 230) having, at input, a value representing the intensity of the electric current flowing in the load-mounted circuit (120, 220); the control device being characterized by the automatic control means (130, 230) comprising an adjusting circuit (130, 230), suitable for adjusting said value into an automatically controlled value as a function of a measurement of the temperature obtained by means for measuring the ambient temperature (132, 232), and by means (TR1, TR2) for injecting a current of an intensity adjusted by the adjusting circuit (130, 230) in the automatic control loop, and in that the control device does not a microcontroller element which contributes to regulation of the current provided to said light source as a function of the temperature of this light source. - a DC-to-DC converter (110, 210) which can convert an input electrical voltage into an output electrical voltage; - a converter (110, 210) load-mounted circuit (120, 220) comprising at least one light source; - converter (110, 210) automatic control means (130, 230) forming an automatic loop control for the converter, the automatic control means (130, 230) having, at input, a value representing the intensity of the electric current flowing in the load-mounted circuit (120, 220);
An isolated antibody that binds HBsAg comprising: (i) a heavy chain comprising the amino acid sequence according to SEQ ID NO:91; and (ii) a light chain comprising the amino acid sequence according to SEQ ID NO:93. (i) a heavy chain comprising the amino acid sequence according to SEQ ID NO:91; and (ii) a light chain comprising the amino acid sequence according to SEQ ID NO:93.
A method of analyzing a primary current waveform of a resonant converter for the purpose of extracting information to keep the converter in correct switching conditions, characterized by the steps of producing the primary current waveform by applying a square wave voltage at operating frequency with an ideal 50% duty cycle to a primary side of the converter, approximating the primary current waveform by a sine component and a cosine component both in phase with the square wave voltage and representing a phase shift relative to the original square wave voltage and a superimposed triangular component which is dependent on the inductance of the circuit, sampling the primary current waveform three times in half a period or sampling the primary current waveform at three different positions in a sequence of different periods, wherein samples are taken at 1/6 (Sample1), 2/6 Sample2 and 3/6 (Sample3) of a period, and extracting information about the sine component, the cosine component and the triangular component to Itriangle = 3 * Sample 1 − 3 * Sample 2 + 3 * Sample 3, where Itriangle is a peak of the triangular current Icos = 3 * Sample 1 − 3 * Sample 2 + 2 * Sample 3, where Icos is an amplitude of the cosine component and Isin = Sample 1 / sqrt 3 + Sample 2 / sqrt 3, where Isin is an amplitude of the sine component, using the information about the cosine component as an indicator for an amount below or above resonance of the resonant converter and/or using the information about the sine component as an indicator for an amount of power delivered to a secondary of the resonant converter since said sine component is proportional to the power delivered to a secondary of the resonant converter and/or using the information about the triangular component to analyze whether the inductance of the resonant converter is within the operating parameters. Itriangle = 3 * Sample 1 − 3 * Sample 2 + 3 * Sample 3, where Itriangle is a peak of the triangular current Icos = 3 * Sample 1 − 3 * Sample 2 + 2 * Sample 3, where Icos is an amplitude of the cosine component and Isin = Sample 1 / sqrt 3 + Sample 2 / sqrt 3, where Isin is an amplitude of the sine component,
A composition, comprising: (i) from 25 parts by weight to 95 parts by weight of a monovinylarene-conjugated diene coupled block copolymer comprising two tapered blocks, having a blocky monovinylarene content of less than 90 wt% of total monovinylarene units, and comprising a terminal monovinylarene block having a molecular weight (Mp) of less than 60,000 g/mol; (ii) from 5 parts by weight to 75 parts by weight of a monovinylarene-alkyl (meth)acrylate copolymer, comprising (ii-a) monovinylarene units and (ii-b) either alkyl acrylate units, alkyl methacrylate units, or both; and (iii) from 0.1 parts by weight to 20 parts by weight of a monovinylarene-conjugated diene rubber. (i) from 25 parts by weight to 95 parts by weight of a monovinylarene-conjugated diene coupled block copolymer comprising two tapered blocks, having a blocky monovinylarene content of less than 90 wt% of total monovinylarene units, and comprising a terminal monovinylarene block having a molecular weight (Mp) of less than 60,000 g/mol; (ii) from 5 parts by weight to 75 parts by weight of a monovinylarene-alkyl (meth)acrylate copolymer, comprising (ii-a) monovinylarene units and (ii-b) either alkyl acrylate units, alkyl methacrylate units, or both; and (iii) from 0.1 parts by weight to 20 parts by weight of a monovinylarene-conjugated diene rubber.
An eyepiece (12, 14) for swim goggles, the eyepiece adapted to be worn over only one eye of a user and comprising: a protective body adapted to be worn over the eye of a user; an adhesive layer that adhesively secures the body to the skin of the user in close proximity to the eye so as to form a substantially water-tight seal around the eye that substantially isolates the eye from the surrounding environment during use, wherein the protective body comprises a transparent lens portion comprising. flat anterior lens portion that is positioned in front of an eye in an as worn orientation and a flat side lens portion that extends rearwardly and temporally from the anterior lens portions at an obtuse angle. a protective body adapted to be worn over the eye of a user; an adhesive layer that adhesively secures the body to the skin of the user in close proximity to the eye so as to form a substantially water-tight seal around the eye that substantially isolates the eye from the surrounding environment during use, wherein the protective body comprises a transparent lens portion comprising. flat anterior lens portion that is positioned in front of an eye in an as worn orientation and a flat side lens portion that extends rearwardly and temporally from the anterior lens portions at an obtuse angle.
A method comprising: scheduling a first version of a compute kernel comprising program code that includes a conditional branch instruction for execution on a first processor core with a single instruction multiple data (SIMD) micro-architecture comprising a plurality of parallel hardware columns, wherein the first version of code comprises program code corresponding to a first direction of the conditional branch instruction rather than a second direction of the conditional branch instruction; executing the first version of the compute kernel on the first processor core using the plurality of parallel hardware columns; in response to determining that a threshold number of columns of the plurality of parallel hardware columns do not resolve to the first direction of the conditional branch instruction: moving values associated with execution of the compute kernel on the first processor core to a location accessible by a second processor core with a second micro-architecture different from the SIMD micro-architecture; and scheduling a second version of the compute kernel comprising program code that corresponds to the second direction of the conditional branch instruction for execution on the second processor core. scheduling a first version of a compute kernel comprising program code that includes a conditional branch instruction for execution on a first processor core with a single instruction multiple data (SIMD) micro-architecture comprising a plurality of parallel hardware columns, wherein the first version of code comprises program code corresponding to a first direction of the conditional branch instruction rather than a second direction of the conditional branch instruction; executing the first version of the compute kernel on the first processor core using the plurality of parallel hardware columns; in response to determining that a threshold number of columns of the plurality of parallel hardware columns do not resolve to the first direction of the conditional branch instruction: moving values associated with execution of the compute kernel on the first processor core to a location accessible by a second processor core with a second micro-architecture different from the SIMD micro-architecture; and scheduling a second version of the compute kernel comprising program code that corresponds to the second direction of the conditional branch instruction for execution on the second processor core. moving values associated with execution of the compute kernel on the first processor core to a location accessible by a second processor core with a second micro-architecture different from the SIMD micro-architecture; and scheduling a second version of the compute kernel comprising program code that corresponds to the second direction of the conditional branch instruction for execution on the second processor core.