mhurhangee/ep-ind-claims huggingface dataset:
Vertical Cavity Surface Emitting Laser, comprising a semiconductor layer structure including a first mirror, an outcoupling mirror and an active region between the first mirror and the outcoupling mirror, further comprising an electrical contact arrangement, and a current confinement region which surrounds a contiguous area of the layer structure, wherein the electrical contact arrangement is arranged to electrically pump the active region to generate laser emission in a single non-fundamental mode extending over the contiguous area, wherein the outcoupling mirror has a first reflectivity in one or more first sub-areas of the contiguous area and a second reflectivity in one or more second sub-areas of the contiguous area outside the one or more first sub-areas, wherein the second reflectivity is lower than the first reflectivity and the single non-fundamental mode has two or more intensity peaks in the one or more first sub-areas and an intensity in the one or more second sub-areas which is lower than 50% of the intensity in the first sub-areas wherein the contiguous area is electrically separated from remaining portions of the layer stack by a first trench, characterized in that the contiguous area has a ring shape, wherein a further current confinement region and a second trench are arranged on the radially inner side of the ring-shaped contiguous area.
A mounting device (15b,15c) used in a mounting system including multiple mounting devices (15a, 15b, 15c) each performing a mounting process on a mounting target (DS1, DS2, DS3), the mounting target (DS1, DS2, DS3) being sequentially supplied to the mounting devices (15a, 15b, 15c), the mounting device (15b, 15c) comprising: a mounting section configured to pick up a component (Pb, Pc) from a supply section holding the component (Pb, Pc) and perform the mounting process for the component (Pb, Pc) on the mounting target (DS2, DS3); characterized by an inspection section configured to perform an inspection process on the component (Pb, Pc) disposed on the mounting target (DS2, DS3) by using reference information; and a control section configured to, when the reference information is updated after an error in a component (Pa) subjected to the mounting process by another mounting device of the multiple mounting devices (15a, 15b, 15c) is detected, cause the inspection section to execute the inspection process using the updated reference information on the component (Pa) subjected to the mounting process by the other mounting device. a mounting section configured to pick up a component (Pb, Pc) from a supply section holding the component (Pb, Pc) and perform the mounting process for the component (Pb, Pc) on the mounting target (DS2, DS3); characterized by an inspection section configured to perform an inspection process on the component (Pb, Pc) disposed on the mounting target (DS2, DS3) by using reference information; and a control section configured to, when the reference information is updated after an error in a component (Pa) subjected to the mounting process by another mounting device of the multiple mounting devices (15a, 15b, 15c) is detected, cause the inspection section to execute the inspection process using the updated reference information on the component (Pa) subjected to the mounting process by the other mounting device.
A loudspeaker comprising: a driver element with a diaphragm, a horn mounted directly to the front side of said driver element without any intervening compression chamber, the horn having an acoustic impedance; and a back chamber enclosing the driver element on the back side of said driver element, characterized in that said back chamber having a wall made of a semi-permeable material adapted to allow air at a static pressure to pass but still provide acoustic resistance while preventing the build-up of high air pressures in the back chamber at large excursions of said diaphragm, wherein the back chamber has an acoustic impedance that matches said acoustic impedance of the horn within an active bandwidth of said horn. a driver element with a diaphragm, a horn mounted directly to the front side of said driver element without any intervening compression chamber, the horn having an acoustic impedance; and a back chamber enclosing the driver element on the back side of said driver element, characterized in that said back chamber having a wall made of a semi-permeable material adapted to allow air at a static pressure to pass but still provide acoustic resistance while preventing the build-up of high air pressures in the back chamber at large excursions of said diaphragm, wherein the back chamber has an acoustic impedance that matches said acoustic impedance of the horn within an active bandwidth of said horn.
A method for analysing secondary ion mass spectrum data representing respective secondary ion counts for a range of masses at a given mass resolution, said mass spectrum data having been obtained by Secondary Ion Mass Spectrometry, SIMS, of at least one voxel of a sample, wherein the method comprises the steps of: a) using data processing means, detecting peaks in said mass spectrum data and storing the corresponding mass for each detected peak in a first memory element; b) using data processing means, associating each detected peak with ion species and/or cluster ions having a corresponding mass, the correspondences between masses and ion species/cluster ions being pre-recorded in a second memory element, and storing the result in a third memory element; characterised in that the association step for each peak is performed by order of increasing mass, and wherein said association step comprises, for a peak at a given mass that corresponds to a plurality of cluster ions, associating said peak with a selection of these cluster ions, wherein cluster ions comprising constituent ions that have been associated with peaks at lower masses are selected. a) using data processing means, detecting peaks in said mass spectrum data and storing the corresponding mass for each detected peak in a first memory element; b) using data processing means, associating each detected peak with ion species and/or cluster ions having a corresponding mass, the correspondences between masses and ion species/cluster ions being pre-recorded in a second memory element, and storing the result in a third memory element; the association step for each peak is performed by order of increasing mass, and wherein said association step comprises, for a peak at a given mass that corresponds to a plurality of cluster ions, associating said peak with a selection of these cluster ions, wherein cluster ions comprising constituent ions that have been associated with peaks at lower masses are selected.
A method of preparing a composition comprising dry mixing commercial grade alumina and a solid sulfating agent to form a mixture and calcining the mixture to form a sulfated alumina support, wherein the solid sulfating agent comprises (NH 4) 2 SO 4, (NH 4)HSO 4, (NH 4)HSO 3 or combinations thereof.
Mixture containing a binder based on a hydrophilic polymer or copolymer and microcapsules containing a liquid constituting a phase-change material and that are embedded in said binder, said mixture being characterized in that the hydrophilic polymer or copolymer used is a carboxylated polyvinyl alcohol.
Method for producing an adhesive tape with the following method steps: 1.1) a material web made of a carrier tape material is supplied from an unwinding unit; 1.2) at least one adhesive strip is then applied to at least one surface of the supplied material web in a coating unit; 1.3) the material web with the applied adhesive strip is then cut into at least two lengthwise strips with the aid of a cutting device and assembled to form the individual adhesive tapes; characterized in that 1.4) before or during the cutting process according to 1.3) and after application of the adhesive strip according to 1.2), the material web is aligned in the transverse direction in such manner by means of a sensor (8, 9) that scans the material web that a precisely positioned lengthwise cut created in each case with the cutting device is introduced into the material web, and for this purpose 1.5) a drive for the unwinding unit connected to a control unit is moved in the transverse direction relative to the direction of advance or lengthwise direction. 1.1) a material web made of a carrier tape material is supplied from an unwinding unit; 1.2) at least one adhesive strip is then applied to at least one surface of the supplied material web in a coating unit; 1.3) the material web with the applied adhesive strip is then cut into at least two lengthwise strips with the aid of a cutting device and assembled to form the individual adhesive tapes; 1.4) before or during the cutting process according to 1.3) and after application of the adhesive strip according to 1.2), the material web is aligned in the transverse direction in such manner by means of a sensor (8, 9) that scans the material web that a precisely positioned lengthwise cut created in each case with the cutting device is introduced into the material web, and for this purpose 1.5) a drive for the unwinding unit connected to a control unit is moved in the transverse direction relative to the direction of advance or lengthwise direction.
A process for purification of Prucalopride succinate, comprising: a) providing a solution of Prucalopride succinate in a solvent medium comprising an organic solvent and water at a temperature of above 40°C, wherein the solvent medium used is selected from the group consisting of a solvent medium comprising isopropyl alcohol and water; a solvent medium comprising isopropyl alcohol, methanol and water; and a solvent medium comprising acetone and water; b) subjecting the solution obtained in step-(a) to carbon treatment to obtain a clear filtrate; c) cooling the filtrate obtained in step-(b) at a temperature below 35°C to cause crystallization; and d) recovering the highly pure Prucalopride Succinate obtained in step-(c). a) providing a solution of Prucalopride succinate in a solvent medium comprising an organic solvent and water at a temperature of above 40°C, wherein the solvent medium used is selected from the group consisting of a solvent medium comprising isopropyl alcohol and water; a solvent medium comprising isopropyl alcohol, methanol and water; and a solvent medium comprising acetone and water; b) subjecting the solution obtained in step-(a) to carbon treatment to obtain a clear filtrate; c) cooling the filtrate obtained in step-(b) at a temperature below 35°C to cause crystallization; and d) recovering the highly pure Prucalopride Succinate obtained in step-(c).
Spectacles including a front face, to which the arms (3a, 3b) are fixed, the connection of the arms to the front face is detachable and is realised by a magnet, characterised in that the magnet is integral with the front face and cooperates with a housing which is integral with the ends of the arms (3a, 3b), said housing being constituted by a set of metallic walls (10a, 10b, 10c, 10d) in order to form a fitting compartment, the housing is constituted by a lateral wall, arranged on the outside of the end of the arm, an upper wall, a lower wall as well as a bottom wall, whereas the front face includes two lateral connecting pieces (6a, 6b), the magnets being of parallelipipedal shape, the magnets being mounted in the lateral connecting parts (6a, 6b), the magnets have a first part retained over its entire periphery in the corresponding connecting part (6a, 6b), in order to project towards the outside of the side where the arms extend, by a second part intended to cooperate with said housing which is integral with the end of the corresponding arm, in order to ensure the detachable connection thereof.
Hot melt pressure sensitive adhesive in form of pellets having a weight of less than 5 g each and comprising a core of a pressure sensitive adhesive material comprising at least one polymer selected from polyester, polyacrylate, polyolefin, polyurethane, ethylene vinyl acetate polymers, styrene block copolymers or mixtures, at least one tackifier and optionally additives, the adhesive material has a softening point of 80 to 150°C and a tacky surface at 25°C, wherein each pellet of adhesive has an outer shell consisting of a polymeric film and is manufactured by a co-extrusion process, whereby a) the film forming material comprises a thermoplastic polymer with a melting point of less than 120°C, b) the film forming material of the shell comprises less than 20 wt-% wax, c) each pellet being completely surrounded by the polymeric film, and d) the film is applied as continuous film, so that the pellets have a non-blocking surface. a) the film forming material comprises a thermoplastic polymer with a melting point of less than 120°C, b) the film forming material of the shell comprises less than 20 wt-% wax, c) each pellet being completely surrounded by the polymeric film, and d) the film is applied as continuous film,
An antibody capable of binding to the human receptor protein CLEC10A for use in the treatment of a blood coagulation disorder, wherein said antibody is capable of inhibiting the binding of von Willebrand factor to CLEC10A and said blood coagulation disorder is hemophilia A or von Willebrand disease.
Optical frequency shifter comprising: - an electro-optical substrate having a main surface; - an optical waveguide structure formed in said substrate and having two waveguide branches, which are spaced apart by a distance such as to ensure mutual optical coupling; and - an electrode structure arranged above said main surface of said substrate and having at least a first electrode said substrate said substrate has a Z-cut crystalline structure with Z crystal axis orthogonal to said main surface characterized in that said substrate comprises two oppositely poled portions (20, 21) having opposite orientations of said Z crystal axis; and in that said two waveguide branches are arranged underneath said first electrode, each in a respective one of said two oppositely poled portions (20, 21). - an electro-optical substrate having a main surface; - an optical waveguide structure formed in said substrate and having two waveguide branches, which are spaced apart by a distance such as to ensure mutual optical coupling; and - an electrode structure arranged above said main surface of said substrate and having at least a first electrode said substrate said substrate has a Z-cut crystalline structure with Z crystal axis orthogonal to said main surface characterized in that said substrate comprises two oppositely poled portions (20, 21) having opposite orientations of said Z crystal axis; and in that said two waveguide branches are arranged underneath said first electrode, each in a respective one of said two oppositely poled portions (20, 21).
A circuit comprising: a digital modulation circuit receiving multiple channel binary data, and for each channel generating a digital representation; a digital-to-analogue, D/A, conversion circuit for each data channel, each said D/A conversion circuit receiving and converting respective said channel digital representations at a sampling rate to produce a resultant analogue signal that is band limited within each Nyquist zone of the sampling rate of said D/A conversion circuit, said band limitation being dependent on a characteristic of said channel digital representations; a bandpass filter receiving and filtering each analogue signal, the band width at the edges of the stop band of each said bandpass filter being wider than a respective band limited analogue signal and wider than the Nyquist bandwidth arising from the sampling rate of said D/A conversion circuit, whereby signal power in unwanted Nyquist zones is effectively removed; and a frequency translation circuit for translating said multiple channel bandpass filtered analogue signals in the frequency domain such that said multiple channel bandpass filtered analogue signals are offset in the frequency domain by a multiple of the bandwidth of the band limited analogue signal, thereby abutting said multiple channel bandpass filtered analogue signals without any guard bands between adjacent channel signals. a digital modulation circuit receiving multiple channel binary data, and for each channel generating a digital representation; a digital-to-analogue, D/A, conversion circuit for each data channel, each said D/A conversion circuit receiving and converting respective said channel digital representations at a sampling rate to produce a resultant analogue signal that is band limited within each Nyquist zone of the sampling rate of said D/A conversion circuit, said band limitation being dependent on a characteristic of said channel digital representations; a bandpass filter receiving and filtering each analogue signal, the band width at the edges of the stop band of each said bandpass filter being wider than a respective band limited analogue signal and wider than the Nyquist bandwidth arising from the sampling rate of said D/A conversion circuit, whereby signal power in unwanted Nyquist zones is effectively removed; and a frequency translation circuit for translating said multiple channel bandpass filtered analogue signals in the frequency domain such that said multiple channel bandpass filtered analogue signals are offset in the frequency domain by a multiple of the bandwidth of the band limited analogue signal, thereby abutting said multiple channel bandpass filtered analogue signals without any guard bands between adjacent channel signals.
A portion comprising a cosmetic preparation and a water-soluble and/or water-dispersible wrapping, characterized in that the wrapping encases the cosmetic preparation and the surface of the wrapping has a root-mean-square roughness of at least 10 μm, both the inner and outer faces of the wrapping having a three-dimensional pattern embossed by heating and pressing.
Process for the recovery of betaine from a raw material consisting essentially of molasses, comprising: i. a demineralisation step, in which the overall amount of salts in the molasses is reduced to at most 0.5 wt.% (on overall dry matter); ii. a conversion step, in which the molasses is subjected to the action of a fructan-forming enzyme, to form a fructan-containing molasses (fructan-molasses); iii. a separation step, in which the fructan-molasses is subjected to a chromatographic separation, thereby obtaining a betaine-containing fraction, whereby step (i) is executed prior to step (iii), and whereby step (i) may be executed prior to, during, or subsequent to step (ii). i. a demineralisation step, in which the overall amount of salts in the molasses is reduced to at most 0.5 wt.% (on overall dry matter); ii. a conversion step, in which the molasses is subjected to the action of a fructan-forming enzyme, to form a fructan-containing molasses (fructan-molasses); iii. a separation step, in which the fructan-molasses is subjected to a chromatographic separation, thereby obtaining a betaine-containing fraction,
A timepiece including, in addition to a crystal, the following external elements: a back, a middle part, a dial, and two bracelet strands, the at least one of these external elements comprising a body formed of at least one first portion made of a first opaque material zirconia-free and of at least one second portion made of a second partially transparent or translucent material, said first material being integral with said second material and the timepiece further including at least one light source producing light which passes through said at least one second portion made of a partially transparent or translucent ceramic material comprising zirconia.
A compound of formula: CCLLCCLLC (SEQ ID No. 1) wherein C represents a cationic amino acid and L represents an amino acid with a lipophilic R group and in which one of the amino acids having a lipophilic R group is a non-genetically coded amino acid, said compound optionally in the form of a salt, ester or amide; for use in the treatment of a tumour, wherein the immunotherapeutic agent cyclophosphamide is administered at a sub-cytotoxic dose prior to the first administration of the compound of formula.
A method at a wireless terminal to support communications with a network node of a wireless communication network, the method comprising: initiating an internet key exchange, IKE, security association, SA, to establish a non-access stratum, NAS, connection between the wireless terminal and the network node through a non-3GPP access network and a non-3GPP interworking function, N3IWF, network node; after initiating the IKE SA, transmitting an IKE authorization request through the non-3GPP access network to the N3IWF network node, wherein the IKE authorization request includes an identifier of the wireless terminal; deriving (2003a, 2007a) an access network key for the NAS connection through the non-3GPP access network at the wireless terminal, wherein the access network key is derived based on a NAS count for the wireless terminal, a NAS Connection IDentification, NAS CID, for the NAS connection through the non-3GPP access network, a process distinguisher value dedicated for the NAS connection through the non-3GPP access network and an anchor key (KAMF); receiving an IKE authorization response corresponding to the IKE authorization request; and performing at least one of integrity protection and/or confidentiality protection for the IKE authorization response using the access network key. initiating an internet key exchange, IKE, security association, SA, to establish a non-access stratum, NAS, connection between the wireless terminal and the network node through a non-3GPP access network and a non-3GPP interworking function, N3IWF, network node; after initiating the IKE SA, transmitting an IKE authorization request through the non-3GPP access network to the N3IWF network node, wherein the IKE authorization request includes an identifier of the wireless terminal; deriving (2003a, 2007a) an access network key for the NAS connection through the non-3GPP access network at the wireless terminal, wherein the access network key is derived based on a NAS count for the wireless terminal, a NAS Connection IDentification, NAS CID, for the NAS connection through the non-3GPP access network, a process distinguisher value dedicated for the NAS connection through the non-3GPP access network and an anchor key (KAMF); receiving an IKE authorization response corresponding to the IKE authorization request; and performing at least one of integrity protection and/or confidentiality protection for the IKE authorization response using the access network key.