mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: (a) a quantum dot binding-ligand having the formula: wherein: each R 1a, R 1b, R 2 and R 4 is independently selected from the group consisting of H, C 1-20 alkyl, C 1-20 heteroalkyl, C 2-20 alkenyl, C 2-20 alkynyl, cycloalkyl and aryl; each R 3a and R 3b is independently selected from the group consisting of H and C 1-6 alkyl; subscripts m and n are each independently 0 or 1, such that m+n is 1; and subscript p is an integer of from 5 to 500; wherein when subscript m is 0, then one of R 1a and R 1b is H, and R 2 and the other of R 1a and R 1b are selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, and cycloalkyl; when subscript m is 1, then R 1a and R 2 are both H and R 1b is selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, cycloalkyl and aryl; and (b) a population of light emitting quantum dots (QDs) comprising InP. (a) a quantum dot binding-ligand having the formula: wherein: each R 1a, R 1b, R 2 and R 4 is independently selected from the group consisting of H, C 1-20 alkyl, C 1-20 heteroalkyl, C 2-20 alkenyl, C 2-20 alkynyl, cycloalkyl and aryl; each R 3a and R 3b is independently selected from the group consisting of H and C 1-6 alkyl; subscripts m and n are each independently 0 or 1, such that m+n is 1; and subscript p is an integer of from 5 to 500; wherein when subscript m is 0, then one of R 1a and R 1b is H, and R 2 and the other of R 1a and R 1b are selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, and cycloalkyl; when subscript m is 1, then R 1a and R 2 are both H and R 1b is selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, cycloalkyl and aryl; and each R 1a, R 1b, R 2 and R 4 is independently selected from the group consisting of H, C 1-20 alkyl, C 1-20 heteroalkyl, C 2-20 alkenyl, C 2-20 alkynyl, cycloalkyl and aryl; each R 3a and R 3b is independently selected from the group consisting of H and C 1-6 alkyl; subscripts m and n are each independently 0 or 1, such that m+n is 1; and subscript p is an integer of from 5 to 500; wherein when subscript m is 0, then one of R 1a and R 1b is H, and R 2 and the other of R 1a and R 1b are selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, and cycloalkyl; when subscript m is 1, then R 1a and R 2 are both H and R 1b is selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, cycloalkyl and aryl; and (b) a population of light emitting quantum dots (QDs) comprising InP.
An absorbent article (10, 20, 300, 500, 600) comprising an absorbent core (101, 501, 601) sandwiched between a liquid permeable topsheet (520, 620) and a liquid impermeable backsheet (521, 621), wherein the absorbent core (101, 501, 601) comprises absorbent material selected from the group consisting of cellulose fibers, superabsorbent polymers and combinations thereof, wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material, and wherein a top layer of said core wrap is adhered to a bottom layer of said core wrap to form one or more channels substantially free of said absorbent material, wherein said channels have a length extending along a longitudinal axis and the absorbent core (101, 501, 601) has a length extending along said longitudinal axis and wherein the length of said channels is from 10% to 95% of the length of said absorbent core (101, 501, 601) such that each said channels are circumscribed by absorbent material characterized in that said top layer of the core wrap is in direct contact with the topsheet, and in that said top layer of the core wrap comprises a spunbond nonwoven wherein the top layer of the core wrap has a first basis weight and the bottom layer of the core wrap has a second basis weight, wherein the first and second basis weights are different, and wherein the first basis weight is greater than the second basis weight.
Machine for harvesting plants that have stems with flowering tops, the machine being configured to be moved toward the plants in a direction of movement and comprising lifting means configured to lift the plants to a first position and guide them to separation means configured for cutting or tearing, so as to separate the stems from the flowering tops and pick up said tops, the machine further comprising: - guide means configured to orient the plants in a second position and guide them to the separation means, - and a suction means configured to suck up said flowering tops and transport them to a receiving means, characterized in that the separation means comprise cutting elements which rotate about a separation axis located in a plane parallel to the direction of movement. - guide means configured to orient the plants in a second position and guide them to the separation means, - and a suction means configured to suck up said flowering tops and transport them to a receiving means,
A coupler having a coupler interface comprising a protruding cone, a matching cup and at least one guiding element (8a, 8b), wherein the height of the coupler from a center line of the coupler interface to top of the coupler interface is smaller than 200 mm, characterized in that the coupler interface has two guiding elements (8a, 8b) which are arranged lateral to the protruding cone and the matching cup, namely to the side of the protruding cone and the matching cup in a direction of the center line, and which are designed to complement each other, wherein one guiding element has a clamp-like design and is configured to embrace the other guiding element of an identical second coupler, which other guiding element has a tooth-shaped design.
Frequency-ramp-based frequency-modulation continuous-wave radar, termed FMCW, having at least one array antenna composed of transmit sub-arrays and of receive sub-arrays, a transmit and receive system and processing means, characterized in that, a transmit and receive two-plane monopulse beamforming being produced by dividing said antenna into four quadrants (1, 2, 3, 4) on transmission and on reception and said transmit monopulse beamforming being obtained through a dual coding in frequency (101, 102) and in phase (103, 104): - the distribution of the transmit sub-arrays and of the receive sub-arrays is symmetric both with respect to a vertical axis and with respect to a horizontal axis; - at least two transmit sub-arrays (11, 11', 41, 41') symmetric with respect to said vertical axis are the largest possible distance apart; - at least two transmit sub-arrays (11, 11", 42, 42") symmetric with respect to said horizontal axis are the largest possible distance apart; - at least two receive sub-arrays (12, 12', 43, 43') symmetric with respect to said vertical axis are the largest possible distance apart; - at least two receive sub-arrays (12, 12", 43, 43") symmetric with respect to said horizontal axis are the largest possible distance apart; - a first coding (101, 102) of the wave transmitted by said transmit sub-arrays being carried out by frequency shifting of said ramps (81, 82) between the various transmit sub-arrays; - a second coding (103, 104) of the wave transmitted by said transmit sub-arrays being carried out by phase modulation from frequency ramp to frequency ramp between the various transmit sub-arrays; - a common oscillator reference being used to carry out said first coding (101, 102) and said second coding (81, 82) of the wave transmitted by rows and by columns of said sub-arrays. - the distribution of the transmit sub-arrays and of the receive sub-arrays is symmetric both with respect to a vertical axis and with respect to a horizontal axis; - at least two transmit sub-arrays (11, 11', 41, 41') symmetric with respect to said vertical axis are the largest possible distance apart; - at least two transmit sub-arrays (11, 11", 42, 42") symmetric with respect to said horizontal axis are the largest possible distance apart; - at least two receive sub-arrays (12, 12', 43, 43') symmetric with respect to said vertical axis are the largest possible distance apart; - at least two receive sub-arrays (12, 12", 43, 43") symmetric with respect to said horizontal axis are the largest possible distance apart; - a first coding (101, 102) of the wave transmitted by said transmit sub-arrays being carried out by frequency shifting of said ramps (81, 82) between the various transmit sub-arrays; - a second coding (103, 104) of the wave transmitted by said transmit sub-arrays being carried out by phase modulation from frequency ramp to frequency ramp between the various transmit sub-arrays; - a common oscillator reference being used to carry out said first coding (101, 102) and said second coding (81, 82) of the wave transmitted by rows and by columns of said sub-arrays.
A detector for detecting differential signal activity, the detector comprising: a differential input comprising a first input and a second input; an output configured to provide an output signal of the detector, wherein the output signal is indicative of differential signal activity on the differential input; and a buffer having an input (110, 112) coupled to the first input of the detector, and comprising output devices (118, 120) configured to provide an output of the buffer, wherein the output of the buffer is coupled to the second input of the detector; wherein the output devices of the buffer are configured to half-wave rectify a differential input signal present at the differential input, to generate a half-wave rectified first signal; and wherein the detector is configured to filter the half-wave rectified first signal to generate the output signal of the detector. a differential input comprising a first input and a second input; an output configured to provide an output signal of the detector, wherein the output signal is indicative of differential signal activity on the differential input; and a buffer having an input (110, 112) coupled to the first input of the detector, and comprising output devices (118, 120) configured to provide an output of the buffer, wherein the output of the buffer is coupled to the second input of the detector; wherein the output devices of the buffer are configured to half-wave rectify a differential input signal present at the differential input, to generate a half-wave rectified first signal; and wherein the detector is configured to filter the half-wave rectified first signal to generate the output signal of the detector.
A method for managing a map of a personal navigation device, said map being stored in a memory associated with said personal navigation device, said personal navigation device comprising a command and data entry unit operable by a user, wherein said map can be visualized on a display and comprises an operational road network, wherein the method il comprises the steps of: combining a first set of data, said first set of data comprising the operational road network and a set of roads stored as being under construction, with a second set of data comprising a piece of information indicating that at least one road of said set of roads stored as being under construction has become operational, wherein said second set of data is entered by the user by means of said command and data entry unit, wherein said second set of data is entered by an interactive procedure, during which said display presents information in a graphic format about said at least one road under construction, wherein said interactive procedure comprises: defining, by the user, the at least one road in said set of roads under construction as an operational road; adding said operational road to said operational road network.
Method of extracting lutein from natural materials comprising: a. Pretreatment of natural materials containing lutein by modification of natural lutein ester in the natural materials to obtain free lutein. b. Extraction comprising contacting the said pretreated natural materials in (a) with supercritical fluid, adjusting temperature to between 40-100 °C or pressure to between 200-450 bar for a period of time to provide the free lutein in the super critical fluid. c. Separation of solid materials from the fluid, after extraction, adjusting temperature and/or pressure to minimize the solubility of extracted materials in the fluid and collecting of the said extracted materials which is the crude lutein. a. Pretreatment of natural materials containing lutein by modification of natural lutein ester in the natural materials to obtain free lutein. b. Extraction comprising contacting the said pretreated natural materials in (a) with supercritical fluid, adjusting temperature to between 40-100 °C or pressure to between 200-450 bar for a period of time to provide the free lutein in the super critical fluid. c. Separation of solid materials from the fluid, after extraction, adjusting temperature and/or pressure to minimize the solubility of extracted materials in the fluid and collecting of the said extracted materials which is the crude lutein.
A wavelength division multiplexing optical transmission apparatus comprising: a plurality of polarization multiplexing optical modulation means (2-1... 2-N) for generating a plurality of polarization multiplexed optical modulation signals having different wavelengths; polarization-maintaining optical multiplexing means for multiplexing the wavelengths of the plurality of polarization multiplexed optical modulation signals to generate a wavelength multiplexed optical signal; and delay adjustment means for adjusting a delay in such a manner that light intensities of polarization multiplexed optical modulation signals having adjacent wavelengths in the wavelength multiplexed optical signal vary inversely with respect to each other, wherein the delay adjustment means is adapted to impart a time shift of T/2 bits between polarization multiplexed optical modulation signals having adjacent wavelengths in the wavelength multiplexed optical signal, and T represents a one-bit time slot at a symbol rate. a plurality of polarization multiplexing optical modulation means (2-1... 2-N) for generating a plurality of polarization multiplexed optical modulation signals having different wavelengths; polarization-maintaining optical multiplexing means for multiplexing the wavelengths of the plurality of polarization multiplexed optical modulation signals to generate a wavelength multiplexed optical signal; and delay adjustment means for adjusting a delay in such a manner that light intensities of polarization multiplexed optical modulation signals having adjacent wavelengths in the wavelength multiplexed optical signal vary inversely with respect to each other, wherein the delay adjustment means is adapted to impart a time shift of T/2 bits between polarization multiplexed optical modulation signals having adjacent wavelengths in the wavelength multiplexed optical signal, and T represents a one-bit time slot at a symbol rate.
A device for down-stretching metal ceramic substrates, comprising a. a metal ceramic substrate; b. a support, which comprises a pad, which is elevated with respect to the support and comprises openings. a. a metal ceramic substrate; b. a support, which comprises a pad, which is elevated with respect to the support and comprises openings.
An aircraft fuel jettison system comprising: a fuel tank (32, 34); a fuel pump; a fuel conduit in communication with said fuel tank (32, 34) and said fuel pump; a shutoff valve; and an overboard fuel jettison conduit in communication with said fuel pump, characterized in that said shutoff valve has an inward vent within said fuel conduit such as to purge all fuel downstream of said shutoff valve from said fuel jettison system by operating said fuel pump after said shutoff valve has closed. a fuel tank (32, 34); a fuel pump; a fuel conduit in communication with said fuel tank (32, 34) and said fuel pump; a shutoff valve; and an overboard fuel jettison conduit in communication with said fuel pump, characterized in that said shutoff valve has an inward vent within said fuel conduit such as to purge all fuel downstream of said shutoff valve from said fuel jettison system by operating said fuel pump after said shutoff valve has closed.
A method of fabricating a composite material part, in particular a link, the method comprising successive operations of applying reinforcing fiber layers (7, 14, 26; 14a, 14b, 14c) that are braided around a mandrel over all or part of the length of the mandrel, the layers being superposed one on another, the method including a step of cutting an intermediate reinforcing fiber layer (14; 14a, 14b, 14c) after it has been applied, a step of withdrawing a cut portion prior to applying the following braided layer (26; 14b, 14c), thereby locally building up an extra thickness of reinforcing layers on each portion of the cut layer that has remained in place (18, 20), the extra thickness constituting local reinforcement of the part, and wherein resin is subsequently injected into the various braided layers prior to the resin being polymerized in order to prepare a blank.
A wear compensation mechanism for a clutch device, notably for a motor vehicle, comprising a wear compensation member comprising a first ramp that is intended to cooperate with a first mating ramp, a wear detection member comprising a second ramp that is intended to cooperate with a second mating ramp, the wear compensation member being able to move with respect to the detection member, characterized in that it comprises means for centering the wear compensation member with respect to the wear detection member, said means being mounted on the wear compensation member and/or on the detection member and being able to move with the member (12, 16) on which the centering means are mounted.
A silicone admixture, comprising: a rubber component, a vulcanizing agent, and a rubber reinforcing silica, wherein the silicone admixture is capable of becoming a cured product having loss tangent (Tan δ) of 0.3 or more and 0.6 or less at 0°C to 50°C, wherein the rubber component is composed of a millable silicone rubber and a silicone high polymer having no cross-linking site, the silicone admixture comprises 40 parts or more and 80 parts or less by weight of the silicone high polymer based on 100 parts by weight of the total of the millable silicone rubber and the silicone high polymer, a (type A durometer) hardness of the millable silicone rubber is 20 or more and 90 or less and a (JIS-A type) hardness of the millable silicone rubber is 20° or more and 90° or less, the loss tangent is a ratio of a loss modulus E" to a storage modulus E' (E"/E'), and the storage modulus E' and the loss modulus E" are values determined using a viscoelasticity measuring apparatus. a rubber component, a vulcanizing agent, and a rubber reinforcing silica, wherein the silicone admixture is capable of becoming a cured product having loss tangent (Tan δ) of 0.3 or more and 0.6 or less at 0°C to 50°C, wherein the rubber component is composed of a millable silicone rubber and a silicone high polymer having no cross-linking site, the silicone admixture comprises 40 parts or more and 80 parts or less by weight of the silicone high polymer based on 100 parts by weight of the total of the millable silicone rubber and the silicone high polymer, a (type A durometer) hardness of the millable silicone rubber is 20 or more and 90 or less and a (JIS-A type) hardness of the millable silicone rubber is 20° or more and 90° or less, the loss tangent is a ratio of a loss modulus E" to a storage modulus E' (E"/E'), and the storage modulus E' and the loss modulus E" are values determined using a viscoelasticity measuring apparatus.
An ultrasonic transducer multilayer structure (10,10',50,80,100), comprising: - a semiconductor layer stack (13,53,83) defining a diode, - a micro-machined ultrasonic transducer, MUT, layer stack being electrically in series with said diode and disposed at least partly on said semiconductor layer stack, characterized in said MUT layer stack comprising an electrically conductive layer sandwiched between said semiconductor layer stack and the MUT layer stack to provide electrical contact with said diode and the MUT layer stack, - a cavity (C1,C2,C3,107) extending over a region (R1,R2,R3,R4) comprising at least a portion of said semiconductor layer stack and said electrically conductive layer, wherein said MUT layer stack comprises a membrane extending at least partly over said region. - a semiconductor layer stack (13,53,83) defining a diode, - a micro-machined ultrasonic transducer, MUT, layer stack being electrically in series with said diode and disposed at least partly on said semiconductor layer stack, characterized in said MUT layer stack comprising an electrically conductive layer sandwiched between said semiconductor layer stack and the MUT layer stack to provide electrical contact with said diode and the MUT layer stack, - a cavity (C1,C2,C3,107) extending over a region (R1,R2,R3,R4) comprising at least a portion of said semiconductor layer stack and said electrically conductive layer,
A fuel container of thermoplastic plastics material having an upper base and a lower base which are supported against each other by means of at least one column-like support element, preferably by means of a plurality of column-like support elements, wherein the support element is in each case welded at the end side to a wall of the upper base and a wall of the lower base, wherein the support element extends between at least one dome-like indentation of the wall of the upper base and the lower base or between at least one dome-like indentation of the wall of the lower base and the upper base or between two opposing dome-like indentations of the wall of the upper base and the lower base characterized in that the wall of the upper base and/or the lower base is/are curved in the region of the indentations with a radius which corresponds to the depth of the indentation.
A data transmission method, comprising: receiving, by a terminal device, a plurality of indication information from a policy control function, PCF, network element, wherein each indication information comprises data network access identifier, DNAI, information corresponding to a respective application, wherein each application corresponds to an application function element included in a data network; and determining, by the terminal device based on each indication information, a packet data unit, PDU, session corresponding to each application for transmitting data of each application; characterised in that the determining comprises: transmitting, by the terminal device in a same PDU session, data of each application with a same DNAI information; and transmitting, by the terminal device in different PDU sessions, data of each application with different DNAI information. receiving, by a terminal device, a plurality of indication information from a policy control function, PCF, network element, wherein each indication information comprises data network access identifier, DNAI, information corresponding to a respective application, wherein each application corresponds to an application function element included in a data network; and determining, by the terminal device based on each indication information, a packet data unit, PDU, session corresponding to each application for transmitting data of each application; characterised in that the determining comprises: transmitting, by the terminal device in a same PDU session, data of each application with a same DNAI information; and transmitting, by the terminal device in different PDU sessions, data of each application with different DNAI information. transmitting, by the terminal device in a same PDU session, data of each application with a same DNAI information; and transmitting, by the terminal device in different PDU sessions, data of each application with different DNAI information.