mhurhangee/patent-ind-claim-en huggingface dataset:
Method for extracting a triglyceride from an oleaginous microorganism comprising the steps: a) adding an enzyme system to the oleaginous microorganism, wherein the enzyme system comprises an enzyme having hydrolase activity to hydrolyze the cell wall of the microorganism and wherein the hydrolase activity is selected from the group consisting of cellulase, hemicellulase, mannase, laminarinase, glucanase, galacturonase, polygalacturonase, pectinase, glucosidase and a combination thereof, b) optionally adding a protease to the hydrolyzed oleaginous microorganism, and c) adding one or more short-chain polymer(s) to the hydrolyzed oleaginous microorganism of step a) and/or b) for demulsification, wherein three separate layers are formed, one comprising the triglyceride, a second comprising cell debris and a third comprising sugar and/or amino acids, and wherein the short-chain polymer is selected from the group consisting of polyglycol, polyadduct of polyglycol and alkenyl succinic acid anhydride, polyester of polyglycol, alkenyl succinic anhydride polyester, block copolymer of propylenoxide and ethylenoxide, polyglycerol, polyester of poly-α-olefine and a combination thereof d) optionally isolating the triglyceride layer. a) adding an enzyme system to the oleaginous microorganism, wherein the enzyme system comprises an enzyme having hydrolase activity to hydrolyze the cell wall of the microorganism and wherein the hydrolase activity is selected from the group consisting of cellulase, hemicellulase, mannase, laminarinase, glucanase, galacturonase, polygalacturonase, pectinase, glucosidase and a combination thereof, b) optionally adding a protease to the hydrolyzed oleaginous microorganism, and c) adding one or more short-chain polymer(s) to the hydrolyzed oleaginous microorganism of step a) and/or b) for demulsification, wherein three separate layers are formed, one comprising the triglyceride, a second comprising cell debris and a third comprising sugar and/or amino acids, and wherein the short-chain polymer is selected from the group consisting of polyglycol, polyadduct of polyglycol and alkenyl succinic acid anhydride, polyester of polyglycol, alkenyl succinic anhydride polyester, block copolymer of propylenoxide and ethylenoxide, polyglycerol, polyester of poly-α-olefine and a combination thereof d) optionally isolating the triglyceride layer.
A device for use in the repair of an ear drum in a subject in need of such treatment, said device: (a) having a tensile strength of 12.5 to 40 MPa; and (b) comprising one or more membrane layers with a combined thickness of between approximately 10 μm and approximately 600 μm, (c) wherein at least one membrane layer comprises a plurality of pores within and on the surface of the device, that range between a diameter of 1°nm and 1°μm, wherein the pore size and shape facilitate cellular adhesion of cells and proliferation of the cells across the device while preventing infiltration of keratinocytes through the device; and (d) the material forming the one or more membrane layers includes silk fibroin, wherein each of features (a), (b), (c) and (d) are selected so the device transmits sound waves between 20 Hz and 20 kHz to middle ear ossicles, and the material forming the one or more membrane layers: I. is of a source non-autologous to the subject being treated with the device; II. is biocompatible; and III. supports proliferation, migration and/or adhesion of cells selected from the group comprising at least any one or more of: keratinocytes, fibroblasts, vascular cells, mucosal epithelial cells, and stem cells. (a) having a tensile strength of 12.5 to 40 MPa; and (b) comprising one or more membrane layers with a combined thickness of between approximately 10 μm and approximately 600 μm, (c) wherein at least one membrane layer comprises a plurality of pores within and on the surface of the device, that range between a diameter of 1°nm and 1°μm, wherein the pore size and shape facilitate cellular adhesion of cells and proliferation of the cells across the device while preventing infiltration of keratinocytes through the device; and (d) the material forming the one or more membrane layers includes silk fibroin, I. is of a source non-autologous to the subject being treated with the device; II. is biocompatible; and III. supports proliferation, migration and/or adhesion of cells selected from the group comprising at least any one or more of: keratinocytes, fibroblasts, vascular cells, mucosal epithelial cells, and stem cells.
An in-wheel motor comprising: a first motor ; a second motor ; a first sun gear which is connected to the first motor ; a first pinion gear which meshes with the first sun gear ; a first carrier which holds the first pinion gear so that the first pinion gear rotates and the first pinion gear revolves about the first sun gear ; a clutch device which regulates the rotation of the first carrier ; a first ring gear which meshes with the first pinion gear and is connected to the second motor ; a second sun gear which is connected to the first motor ; a second pinion gear which meshes with the second sun gear ; a third pinion gear which meshes with the second pinion gear ; a second carrier which holds the second pinion gear and the third pinion gear so that the second pinion gear and the third pinion gear respectively rotate and the second pinion gear and the third pinion gear revolve about the second sun gear and is connected to the first ring gear ; a second ring gear which meshes with the third pinion gear ; a third sun gear which is connected to the second ring gear ; a fourth pinion gear which meshes with the third sun gear ; a third carrier which holds the fourth pinion gear so that the fourth pinion gear rotates and the fourth pinion gear revolves about the third sun gear and is connected to the vehicle wheel (H) of the electric vehicle, and a third ring gear which meshes with the fourth pinion gear and is fixed to a stationary system. a first motor ; a second motor ; a first sun gear which is connected to the first motor ; a first pinion gear which meshes with the first sun gear ; a first carrier which holds the first pinion gear so that the first pinion gear rotates and the first pinion gear revolves about the first sun gear ; a clutch device which regulates the rotation of the first carrier ; a first ring gear which meshes with the first pinion gear and is connected to the second motor ; a second sun gear which is connected to the first motor ; a second pinion gear which meshes with the second sun gear ; a third pinion gear which meshes with the second pinion gear ; a second carrier which holds the second pinion gear and the third pinion gear so that the second pinion gear and the third pinion gear respectively rotate and the second pinion gear and the third pinion gear revolve about the second sun gear and is connected to the first ring gear ; a second ring gear which meshes with the third pinion gear ; a third sun gear which is connected to the second ring gear ; a fourth pinion gear which meshes with the third sun gear ; a third carrier which holds the fourth pinion gear so that the fourth pinion gear rotates and the fourth pinion gear revolves about the third sun gear and is connected to the vehicle wheel (H) of the electric vehicle, and a third ring gear which meshes with the fourth pinion gear and is fixed to a stationary system.
A pigmented aqueous basecoat material comprising a polyether-based reaction product which is preparable by reaction of (a) trimesic acid with (b) at least one polyether of the general structural formula (I) in which R is a C 3 to C 6 alkylene radical and n is selected accordingly such that the polyether (b) possesses a number-average molecular weight of 750 to 5000 g/mol, the number-average molecular weight being determined by the method specified in the description, the components (a) and (b) being used in the reaction in a molar ratio of 0.7/2.3 to 1.6/1.7 and the resulting reaction product possessing an acid number of 5 to 50 mg KOH/g. (a) trimesic acid with (b) at least one polyether of the general structural formula (I) in which R is a C 3 to C 6 alkylene radical and n is selected accordingly such that the polyether (b) possesses a number-average molecular weight of 750 to 5000 g/mol, the number-average molecular weight being determined by the method specified in the description,
An apparatus comprising: a receiver configured to receive a merged packetized media bitstream which includes packets associated with a main stream and packets associated with an auxiliary stream, wherein the main stream comprises MPEG-H 3D audio data encapsulated as packets in an MHAS format according to ISO/IEC 23008-3, and wherein the auxiliary stream comprises additional audio data encapsulated as packets in the MHAS format, wherein a format of a packet payload of the packets associated with the auxiliary stream is different from the MPEG-H 3D audio format, and time offset packets in the MHAS format signaling an indication of a time offset of the auxiliary stream to the main stream and having a same packet label number assigned as the MHAS packets carrying the additional audio data said time offset packets refer to; a splitter configured to identify a packet type encapsulated in a header of the packets in the merged packetized media bitstream and configured to split, based on the identification of the packet type, the merged packetized media bitstream into the main stream and the auxiliary stream, wherein the packet types of the packets associated with the auxiliary stream are new MHAS packet types encapsulated in the packet header, wherein the new MHAS packet types are different from the packet type according to ISO/IEC 23008-3, and a time-alignment unit for time-aligning the additional audio data with the main audio data based on the signaled time offset. a receiver configured to receive a merged packetized media bitstream which includes packets associated with a main stream and packets associated with an auxiliary stream, wherein the main stream comprises MPEG-H 3D audio data encapsulated as packets in an MHAS format according to ISO/IEC 23008-3, and wherein the auxiliary stream comprises additional audio data encapsulated as packets in the MHAS format, wherein a format of a packet payload of the packets associated with the auxiliary stream is different from the MPEG-H 3D audio format, and time offset packets in the MHAS format signaling an indication of a time offset of the auxiliary stream to the main stream and having a same packet label number assigned as the MHAS packets carrying the additional audio data said time offset packets refer to; a splitter configured to identify a packet type encapsulated in a header of the packets in the merged packetized media bitstream and configured to split, based on the identification of the packet type, the merged packetized media bitstream into the main stream and the auxiliary stream, wherein the packet types of the packets associated with the auxiliary stream are new MHAS packet types encapsulated in the packet header, wherein the new MHAS packet types are different from the packet type according to ISO/IEC 23008-3, and a time-alignment unit for time-aligning the additional audio data with the main audio data based on the signaled time offset.
A laminate comprising a surface coating layer and a thermoplastic resin film layer, wherein the surface coating layer contains 70 to 99% by mass of a polyurethane resin and 1 to 25% by mass of colloidal silica sol having a metal oxide layer on the surface of colloidal silica, the metal oxide contains aluminum, an amount of the surface coating layer applied to the thermoplastic resin film layer is 0.07 to 20 g/m 2 in terms of a solid content after drying per unit area, and the thermoplastic resin film layer contains an olefin-based resin. the surface coating layer contains 70 to 99% by mass of a polyurethane resin and 1 to 25% by mass of colloidal silica sol having a metal oxide layer on the surface of colloidal silica, the metal oxide contains aluminum, an amount of the surface coating layer applied to the thermoplastic resin film layer is 0.07 to 20 g/m 2 in terms of a solid content after drying per unit area, and the thermoplastic resin film layer contains an olefin-based resin.
A composition comprising a therapeutically effective amount of Glatiramer acetate and a non-gelling matrix, wherein said composition is formulated for sublingual administration in a form selected from the group consisting of a sublingual tablet and a sublingual capsule, and wherein the non-gelling matrix is water soluble and provides an immediate release of the Glatiramer acetate in the sublingual cavity for use in the treatment of multiple sclerosis.
A battery electrode, comprising: a) a porous silicon microstructure including i) a Si mesoporous microparticle having pores disposed therein or ii) a cluster of Si nanoparticles having pores disposed between the Si nanoparticles; b) a silicon shell coating deposited on the porous silicon microstructure, wherein an outer contour of the porous silicon microstructure is conformally covered by the silicon shell coating such that the pores remain in the porous silicon microstructure; and c) a graphene coating deposited on said silicon shell coating, wherein said graphene coating encapsulates said silicon shell coating forming a graphene-encapsulated silicon-shell-protected porous silicon microstructure battery electrode. a) a porous silicon microstructure including i) a Si mesoporous microparticle having pores disposed therein or ii) a cluster of Si nanoparticles having pores disposed between the Si nanoparticles; b) a silicon shell coating deposited on the porous silicon microstructure, wherein an outer contour of the porous silicon microstructure is conformally covered by the silicon shell coating such that the pores remain in the porous silicon microstructure; and c) a graphene coating deposited on said silicon shell coating, wherein said graphene coating encapsulates said silicon shell coating forming a graphene-encapsulated silicon-shell-protected porous silicon microstructure battery electrode.
A computer-implemented method of predicting warps for image registration between band pairs in an N-band system, wherein a focal plane array, FPA, is used to acquire the imagery, and wherein the FPA comprises linear sensor arrays, sticks, wherein the sticks are positioned along a y direction and are displaced from each other spatially in the y direction, and wherein the sticks are mounted on a platform moving in the y direction, the method comprising: receiving warp data (13; 14; 15; 140) for a first band pair in an N-band system; fitting a warp model (16; 160) to the warp data (13; 14; 15; 140) to produce an offset profile for the first band pair, wherein the warp model (16; 160) has a slope and an offset for a space varying translation between a band pair, and the offset profile is the offset as a function of y for the space varying translation between the band pair; predicting a respective offset profile for at least one other band pair in the N-band system; using the predicted respective offset profile to generate a warp (44; 46; 48; 440; 460; 480) for the at least one other band pair; and registering images of the at least one other band pair using the warp for the at least one other band pair; the method characterised in that predicting a respective offset profile includes: estimating stick spacing for the N-bands of the FPA; and shifting and scaling the offset profile for the first band pair, wherein shifting and scaling values of the offset profile for the first band pair are derived from the stick spacing of the bands in the first band pair and the bands in the at least one other band pair. receiving warp data (13; 14; 15; 140) for a first band pair in an N-band system; fitting a warp model (16; 160) to the warp data (13; 14; 15; 140) to produce an offset profile for the first band pair, wherein the warp model (16; 160) has a slope and an offset for a space varying translation between a band pair, and the offset profile is the offset as a function of y for the space varying translation between the band pair; predicting a respective offset profile for at least one other band pair in the N-band system; using the predicted respective offset profile to generate a warp (44; 46; 48; 440; 460; 480) for the at least one other band pair; and registering images of the at least one other band pair using the warp for the at least one other band pair; the method characterised in that predicting a respective offset profile includes: estimating stick spacing for the N-bands of the FPA; and shifting and scaling the offset profile for the first band pair, wherein shifting and scaling values of the offset profile for the first band pair are derived from the stick spacing of the bands in the first band pair and the bands in the at least one other band pair. estimating stick spacing for the N-bands of the FPA; and shifting and scaling the offset profile for the first band pair, wherein shifting and scaling values of the offset profile for the first band pair are derived from the stick spacing of the bands in the first band pair and the bands in the at least one other band pair.
A conductive composition comprising: a solvent; a π-conjugated conductive polymer which is a substituted or unsubstituted polyaniline having a chlorine content of 0.04 wt% or less as measured using combustion-ion chromatography; and a compound represented by the following formula , which differs from the solvent; wherein the π-conjugated conductive polymer is dissolved; and the weight ratio of the compound represented by the formula to the π-conjugated conductive polymer (compound represented by the formula /π-conjugated conductive polymer) is 0.01 to 22.0; and wherein n is an integer of 1 to 5; and R is independently an alkyl group having 2 to 10 carbon atoms; and wherein the π-conjugated conductive polymer is a π-conjugated conductive polymer which is doped with an organic sulfonic acid. a solvent; a π-conjugated conductive polymer which is a substituted or unsubstituted polyaniline having a chlorine content of 0.04 wt% or less as measured using combustion-ion chromatography; and a compound represented by the following formula , which differs from the solvent; wherein the π-conjugated conductive polymer is dissolved; and the weight ratio of the compound represented by the formula to the π-conjugated conductive polymer (compound represented by the formula /π-conjugated conductive polymer) is 0.01 to 22.0; and wherein n is an integer of 1 to 5; and R is independently an alkyl group having 2 to 10 carbon atoms; and wherein the π-conjugated conductive polymer is a π-conjugated conductive polymer which is doped with an organic sulfonic acid.
A pump set for use with a pumping apparatus having a rotor with a plurality of rollers mounted on the rotor rotatable about an axis of rotation, the pump set comprising: a cassette body comprising a flexible stator member with a fixed portion secured to the cassette body , a second portion opposite the fixed portion along a length of the flexible stator member , a reaction surface and a second surface opposite the reaction surface, the reaction surface defined between the fixed portion and the second portion, the flexible stator member being at least partially free to float in a stator opening ; and a deformable tube secured to the cassette body , at least a portion of the tube is disposed against the reaction surface, characterised in that : the flexible stator member has a first thickness (T1) extending along the entire length of the flexible stator member and a second thickness (T2) different from the first thickness extending along the entire length of the flexible stator member . a cassette body comprising a flexible stator member with a fixed portion secured to the cassette body , a second portion opposite the fixed portion along a length of the flexible stator member , a reaction surface and a second surface opposite the reaction surface, the reaction surface defined between the fixed portion and the second portion, the flexible stator member being at least partially free to float in a stator opening ; and a deformable tube secured to the cassette body , at least a portion of the tube is disposed against the reaction surface, characterised in that : the flexible stator member has a first thickness (T1) extending along the entire length of the flexible stator member and a second thickness (T2) different from the first thickness extending along the entire length of the flexible stator member .
A method performed by a Wireless Transmit/Receive Unit, WTRU, for selecting a local service network, the method comprising: receiving, from a non-access stratum signaling, steering of roaming, SoR, information for one or more networks providing localized services, wherein the SoR information comprises an indication of a prioritized list of one or more networks providing localized services, wherein each network providing localized services in the prioritized list of one or more networks is associated with a network identifier , a time window and a geographic area ; switching to an access mode for network searching; searching for a network providing localized services; selecting a network providing localized services based on the prioritized list of one or more networks providing localized services, on a condition that a current time is within a time window associated with the selected network providing localized services, wherein the time window comprises a time period during which the corresponding network is considered for joining; and joining the selected network providing localized services. receiving, from a non-access stratum signaling, steering of roaming, SoR, information for one or more networks providing localized services, wherein the SoR information comprises an indication of a prioritized list of one or more networks providing localized services, wherein each network providing localized services in the prioritized list of one or more networks is associated with a network identifier , a time window and a geographic area ; switching to an access mode for network searching; searching for a network providing localized services; selecting a network providing localized services based on the prioritized list of one or more networks providing localized services, on a condition that a current time is within a time window associated with the selected network providing localized services, wherein the time window comprises a time period during which the corresponding network is considered for joining; and joining the selected network providing localized services.