mhurhangee/ep-ind-claims huggingface dataset:
A method of printing a graphic on a fibrous structure comprising apertures and filaments; wherein the filaments comprise: filament forming material, and an active agent releasable form the filaments when exposed to conditions of intended use; wherein the fibrous structure includes a first surface and a second surface opposite the first surface; wherein the method comprises: printing a graphic directly on the fibrous structure, wherein the graphic comprises a water-based ink positioned on the first surface, wherein a portion of the ink penetrates at a depth of 100 microns or less below the first surface; and wherein the fibrous structure has an average dissolution time of about 600 seconds or less as measured according to the Dissolution Test Method described herein. wherein the filaments comprise: filament forming material, and an active agent releasable form the filaments when exposed to conditions of intended use; filament forming material, and an active agent releasable form the filaments when exposed to conditions of intended use; wherein the fibrous structure includes a first surface and a second surface opposite the first surface; wherein the method comprises: printing a graphic directly on the fibrous structure, wherein the graphic comprises a water-based ink positioned on the first surface, wherein a portion of the ink penetrates at a depth of 100 microns or less below the first surface; and wherein the fibrous structure has an average dissolution time of about 600 seconds or less as measured according to the Dissolution Test Method described herein. printing a graphic directly on the fibrous structure, wherein the graphic comprises a water-based ink positioned on the first surface, wherein a portion of the ink penetrates at a depth of 100 microns or less below the first surface; and wherein the fibrous structure has an average dissolution time of about 600 seconds or less as measured according to the Dissolution Test Method described herein.
An amplified spontaneous emission, ASE, source device comprising: a superluminescent light emitting diode, SLED, and a semiconductor optical amplifier, SOA, arranged in series, each having a structure made up of a succession of epitaxial semiconductor layers (2 - 9) which form an optical mode confining waveguide comprising a core of a higher refractive index active region layer (4, 5, 6), and a cladding of lower refractive index cladding layers (2, 3, 7, 8), wherein the SLED and the SOA each have a confinement factor defined as the percentage of the power of the optical mode that lies within the active region layer, wherein the confinement factor of the SLED is greater than that of the SOA by a factor of at least 1.2, wherein the SLED and the SOA each comprise a ridge of a ridge width (w r) and an etch depth (d etch) defined by an etched surface, each active region layer (4, 5, 6) being buried below the etched surface of its respective ridge by a residual distance (d res) and extending laterally beyond its respective ridge on both sides, and wherein the optical modes in the SLED and the SOA have respective mode widths (w m) defined by the ridge widths (w r) and the residual distances (d res) of their respective ridges. a superluminescent light emitting diode, SLED, and a semiconductor optical amplifier, SOA, arranged in series, each having a structure made up of a succession of epitaxial semiconductor layers (2 - 9) which form an optical mode confining waveguide comprising a core of a higher refractive index active region layer (4, 5, 6), and a cladding of lower refractive index cladding layers (2, 3, 7, 8), wherein the SLED and the SOA each have a confinement factor defined as the percentage of the power of the optical mode that lies within the active region layer, wherein the confinement factor of the SLED is greater than that of the SOA by a factor of at least 1.2, wherein the SLED and the SOA each comprise a ridge of a ridge width (w r) and an etch depth (d etch) defined by an etched surface, each active region layer (4, 5, 6) being buried below the etched surface of its respective ridge by a residual distance (d res) and extending laterally beyond its respective ridge on both sides, and wherein the optical modes in the SLED and the SOA have respective mode widths (w m) defined by the ridge widths (w r) and the residual distances (d res) of their respective ridges.
A method of a central node (C-N), for migration of one or more data modules and/or one or more application modules from a remote service node (RS-N) to a local service node (LS-N) residing in a vehicle (VEHICLE), the method comprising: determining (Step 1) that a first condition is met that indicates a request to migrate the one or more data modules and/or the one or more application modules from the remote service node (RS-N) to the local service node (LS-N); initiating (Step 2) a first migration of the one or more data modules and/or the one or more application modules based on whether the first condition is met; wherein the determining that the first condition is met is based on receiving information that a mobile communication device, which communicates with the remote service node (RS-N), is in proximity of the local service node (LS-N) from any one of the local service node (LS-N) and the mobile communication device and obtaining departure information of the vehicle, wherein the local service node (LS-N) is a node that will provide services to the mobile communication device while the mobile communication device is travelling on the vehicle. determining (Step 1) that a first condition is met that indicates a request to migrate the one or more data modules and/or the one or more application modules from the remote service node (RS-N) to the local service node (LS-N); initiating (Step 2) a first migration of the one or more data modules and/or the one or more application modules based on whether the first condition is met; wherein the determining that the first condition is met is based on receiving information that a mobile communication device, which communicates with the remote service node (RS-N), is in proximity of the local service node (LS-N) from any one of the local service node (LS-N) and the mobile communication device and obtaining departure information of the vehicle, wherein the local service node (LS-N) is a node that will provide services to the mobile communication device while the mobile communication device is travelling on the vehicle.
An antenna pattern frame comprising: a radiator having an antenna pattern part for receiving an external signal and a connection terminal portion for transmitting the received external signal to an electronic device; and a radiator frame having the radiator injection-moulded to have the antenna pattern part formed on one surface of the radiator frame and including the antenna pattern part for embedment on an inner side of the electronic device, characterised in that the antenna pattern frame includes an over-mould part formed by injection-moulding of the radiator frame and over-moulded so as to be formed on the antenna pattern part in order to prevent the antenna pattern part from becoming separated from the radiator frame, wherein the radiator frame has a radiator support protruded from an opposite surface of the one surface of the radiator frame, wherein the connection terminal portion is disposed on the opposite surface of the one surface of the radiator frame and supportedly mounted so as to be in contact with the radiator support, and wherein a connection portion connects the antenna pattern part and the connection terminal portion such that they form different planes, and having the connection terminal portion formed on the opposite side of the one surface of the radiator frame, and wherein a portion of the antenna pattern part formed on the one surface of the radiator frame is covered by the over-mould part. a radiator having an antenna pattern part for receiving an external signal and a connection terminal portion for transmitting the received external signal to an electronic device; and a radiator frame having the radiator injection-moulded to have the antenna pattern part formed on one surface of the radiator frame and including the antenna pattern part for embedment on an inner side of the electronic device, characterised in that the antenna pattern frame includes an over-mould part formed by injection-moulding of the radiator frame and over-moulded so as to be formed on the antenna pattern part in order to prevent the antenna pattern part from becoming separated from the radiator frame, wherein the radiator frame has a radiator support protruded from an opposite surface of the one surface of the radiator frame, wherein the connection terminal portion is disposed on the opposite surface of the one surface of the radiator frame and supportedly mounted so as to be in contact with the radiator support, and wherein a connection portion connects the antenna pattern part and the connection terminal portion such that they form different planes, and having the connection terminal portion formed on the opposite side of the one surface of the radiator frame, and wherein a portion of the antenna pattern part formed on the one surface of the radiator frame is covered by the over-mould part.
Use of a nucleic acid molecule comprising a nucleic acid sequence, which codes for a plant pentose transporter, for the transformation of a cell, wherein the transformation enables the cell to take up L-arabinose, wherein the cell is a yeast cell, and wherein the plant pentose transporter comprises an amino acid sequence, which is at least 70%, preferably at least 80%, more preferably at least 90% identical to the amino acid sequence of SEQ ID NO: 1 and has an in vitro and/or in vivo pentose transport function.
Optical unit for a motor vehicle, the optical unit comprising a housing closed by a cover glass, the housing comprising a reflector on which a mask is fixed, the reflector comprising a positioning impression of the mask the mask having a projection complementary in shape to the positioning indentation, the positioning indentation being formed by two open cavities (162, 164), the two cavities (162, 164) being elongated and oriented along two non-parallel axes, and wherein the two cavities (162, 164) are contiguous.
A lighting module comprising: a carrier having a major surface; and an optically transmissive light exit structure facing the major surface and being spatially separated therefrom; wherein the major surface of the carrier includes a plurality of first regions and a plurality of second regions, the plurality of first regions and the plurality of second regions being arranged in a checkerboard pattern on the major surface, and each second region being adjacent to a first region; wherein each first region of said carrier has at least one light engine; wherein each first region is covered by a separate cover that is optically transmissive and acoustically reflective; wherein each cover has a pyramidal shape comprising a surface portion with a surface normal under a non-zero angle (θ) with the surface normal of the light exit structure so that it is shaped to reflect sound waves towards an adjacent second region; and wherein each second region of said carrier has an acoustically absorbent member arranged to absorb said reflected sound waves. a carrier having a major surface; and an optically transmissive light exit structure facing the major surface and being spatially separated therefrom; wherein the major surface of the carrier includes a plurality of first regions and a plurality of second regions, the plurality of first regions and the plurality of second regions being arranged in a checkerboard pattern on the major surface, and each second region being adjacent to a first region; wherein each first region of said carrier has at least one light engine; wherein each first region is covered by a separate cover that is optically transmissive and acoustically reflective; wherein each cover has a pyramidal shape comprising a surface portion with a surface normal under a non-zero angle (θ) with the surface normal of the light exit structure so that it is shaped to reflect sound waves towards an adjacent second region; and wherein each second region of said carrier has an acoustically absorbent member arranged to absorb said reflected sound waves.
An end use composition made by hydrating an isotropic concentrate composition comprising: i) 0.1 to 10%, preferably, 0.5 to 6 %, more preferably, 1 to 4.5% by weight, of acyl isethionate; ii) 0.1% to 10%, preferably, 0.5 to 6 %, more preferably, 1 to 4.5% by weight acyl taurate; iii) 0.2 to 25%, preferably, 3.0 to 20% and more preferably, 5 to 17% by weight of an amphoteric and/or zwitterionic surfactant; iv) 5.0 to 50%, preferably,10.0 to 40%, more preferably, 20 to 30% by weight humectant comprising glycerin; v) 0.7 to 8%, preferably, 1.0 to 7%, more preferably, 1.5 to 5% by weight fragrance; vi) 0.7 to 5%, preferably, 1.0 to 4.5%, more preferably, 1.2 to 4% by weight emulsifier having an HLB from 8 to 19, preferably, from 10 to 18, more preferably, from 12 to 17; and vii) 25 to 80%, preferably, 30 to 70%, more preferably, 35 to 45% by weight water, wherein total surfactant in the concentrate composition makes up from 12 to 35%, and preferably, from 15 to 30%, and most preferably, from 20 to 28% by weight of the isotropic concentrate composition and further wherein emulsifier to fragrance in the concentrate composition are at a weight ratio from 1:0.8 to 1:4, preferably, from 1:1 to 1:3, and more preferably, from 1:1.1 to 1:2, wherein the isotropic concentrate composition to water used to hydrate is at a weight ratio from 1:1 to 1:6, preferably, 1:1.5 to 1:5, more preferably, 1:2 to 1:4. i) 0.1 to 10%, preferably, 0.5 to 6 %, more preferably, 1 to 4.5% by weight, of acyl isethionate; ii) 0.1% to 10%, preferably, 0.5 to 6 %, more preferably, 1 to 4.5% by weight acyl taurate; iii) 0.2 to 25%, preferably, 3.0 to 20% and more preferably, 5 to 17% by weight of an amphoteric and/or zwitterionic surfactant; iv) 5.0 to 50%, preferably,10.0 to 40%, more preferably, 20 to 30% by weight humectant comprising glycerin; v) 0.7 to 8%, preferably, 1.0 to 7%, more preferably, 1.5 to 5% by weight fragrance; vi) 0.7 to 5%, preferably, 1.0 to 4.5%, more preferably, 1.2 to 4% by weight emulsifier having an HLB from 8 to 19, preferably, from 10 to 18, more preferably, from 12 to 17; and vii) 25 to 80%, preferably, 30 to 70%, more preferably, 35 to 45% by weight water, wherein total surfactant in the concentrate composition makes up from 12 to 35%, and preferably, from 15 to 30%, and most preferably, from 20 to 28% by weight of the isotropic concentrate composition and further wherein emulsifier to fragrance in the concentrate composition are at a weight ratio from 1:0.8 to 1:4, preferably, from 1:1 to 1:3, and more preferably, from 1:1.1 to 1:2, wherein the isotropic concentrate composition to water used to hydrate is at a weight ratio from 1:1 to 1:6, preferably, 1:1.5 to 1:5, more preferably, 1:2 to 1:4.
A solid rocket propellant comprising a binder having hydroxyl-terminated polybutadiene (HTPB) with a curative that is a diisocyanate-terminated polyether selected from hexamethylene diisocyanate-terminated perfluoro-3,6,9-trioxaundecane-1,11-diol (FODI) or hexamethylene diisocyanate-terminated polytetrahydrofuran (pTHF).
Use of a paint formulation containing metallic effect pigments for painting a vehicle equipped with a Radar sensor and a Lidar sensor, the metallic effect pigments comprising a metal substrate that is optionally passivated and encased with at least one dielectric layer, wherein the metallic effect pigments have a mean pigment thickness of 20 nm to 2000 nm and the relative standard deviation of the mean pigment thickness is at most 40 %.
Process for the electrolytic splitting of water under neutral electrolyte conditions, namely, conditions of an electrolyte having a pH in the range of 4.5 to 8.5, using a composite comprising a carbon-based support and a manganese oxide (MnO X), wherein the manganese oxide is nanoparticular and comprises a mixture of Mn(+III) and (+IV) or a mixture of Mn(+II) and Mn(+III).
A cup holder tray for an armrest of an automobile rear seat, comprising a tray adapted to be placed and installed in an armrest of a rear seat, and structured by a cup holder which protrudes forward by being unlocked from a lock member formed at a back of a main body with a one-touch operation when a cover provided in a front face is pressed, wherein a stopper is inserted and while a position of the stopper is being shifted by a rotation of the stopper due to the weight thereof between a lid plate and the cup holder, a backward movement of the cup holder is restricted and released, characterized in that the stopper is pivotally supported at the lid plate of the tray, wherein the stopper includes a locking piece formed to protrude, and positioned between the lid plate and the cup holder at the center of a turning axis which is connected to an axis groove provided at a back of the lid plate, and from two sides of the locking piece, a rotation weight being integrally molded in a lower portion.
Tread band made of rubber-like material for a tyre for winter travel, said tread band comprising a plurality of blocks, each block comprising a contact face designed to come into contact with the ground when the tyre travels, the contact face having a plurality of sipes formed therein and a plurality of fine grooves shallower than the sipes, characterized in that each block comprises at least one lateral face, this lateral face being covered by a covering material, the covering material having a modulus of elasticity which is greater than the modulus of elasticity of the rubber-like material forming the block.
A method used for uplink power control in a UE (MUE; PUE) of a heterogeneous network with a shared cell-ID, wherein, the method comprises the following steps: i. receiving at least two groups of power control parameters comprising a semi-static base level and a compensation factor of open loop path loss, the at least two groups of power control parameters being respectively related to different associable wireless access points, wherein, the power control parameters meet the following conditions: - the power control parameters are different for a macro wireless access point (eNB) and a pico wireless access point (RRH1, RRH2), and: - are the same for each pico wireless access point (RRH1, RRH2); - are the same for each indoor wireless access point or each outdoor wireless access point; or - are different for each pico wireless access point (RRH1, RRH2), wherein when the at least two groups of power control parameters are different for each pico wireless access point (RRH1, RRH2), the at least two groups of power control parameters meet the following conditions: - the semi-static base levels are different for different pico wireless access points (RRH1, RRH2), and the compensation factors of open loop path loss are the same for each pico wireless access point (RRH1, RRH2), or the semi-static base levels are different for different pico wireless access points (RRH1, RRH2) and the compensation factors of open loop path loss are different for each pico wireless access point (RRH1, RRH2); ii. determining a uplink power according to the at least two groups of power control parameters; iii. transmitting uplink data based on the determined uplink power.
An electret fiber sheet wherein an average of -(b*)-(a*) values satisfies the following expression: 12 ≤ − b * − a * Ave ≤ 50 wherein a* and b* are values measured by a spectrophotometer, by the method described in the specification, when a red positive charge toner and a blue negative charge toner are attached; and wherein the electret fiber sheet is produced by an electretizing method comprising a spraying step of impinging jets of water or a stream of water droplets on a non-conductive fiber sheet in an environment in which misty water is present, wherein a spouting pressure is 0.5 to 6.0 MPa and a distance between the nozzle spouting face and the fiber sheet surface is 20 to 100 mm. wherein a* and b* are values measured by a spectrophotometer, by the method described in the specification, when a red positive charge toner and a blue negative charge toner are attached; and wherein the electret fiber sheet is produced by an electretizing method comprising a spraying step of impinging jets of water or a stream of water droplets on a non-conductive fiber sheet in an environment in which misty water is present, wherein a spouting pressure is 0.5 to 6.0 MPa and a distance between the nozzle spouting face and the fiber sheet surface is 20 to 100 mm.
A nanoparticle comprising a viral vector coated with a polymer or a mixture of polymers, wherein the viral vector comprises a transgene, and wherein the nanoparticle functions as a vehicle for delivering the transgene to eukaryotic cells, wherein the viral vector lacks envelope protein.
A method of transmitting synchronization information blocks, applied to a base station in a 5G network communication system, the method comprising the steps of determining target mode index information according to a preset synchronization information block burst set, SS burst set, mode, wherein the target mode index information indicates the preset SS burst set mode, and the target mode index information comprises information on a number of times that synchronization signal bursts, SS bursts, with a same band are transmitted within one duration of an SS burst set and a number of times that SS bursts with the same band are comprised within one duration of the SS burst set; storing the target mode index information in each synchronization information block, SS block, to acquire target synchronization information blocks to be transmitted, wherein the SS block comprises a primary synchronization signal and a secondary synchronization signal, and the SS block is loaded into a high frequency beam; and periodically transmitting the target synchronization information blocks to user equipment in a target cell using high frequency beams; wherein each of the SS burst sets comprises a first preset number of SS bursts that are periodically transmitted, each of the SS bursts includes a second preset number of the target synchronization information blocks that are transmitted in a spatial sequence, and the SS burst sets are periodically transmitted. determining target mode index information according to a preset synchronization information block burst set, SS burst set, mode, wherein the target mode index information indicates the preset SS burst set mode, and the target mode index information comprises information on a number of times that synchronization signal bursts, SS bursts, with a same band are transmitted within one duration of an SS burst set and a number of times that SS bursts with the same band are comprised within one duration of the SS burst set; storing the target mode index information in each synchronization information block, SS block, to acquire target synchronization information blocks to be transmitted, wherein the SS block comprises a primary synchronization signal and a secondary synchronization signal, and the SS block is loaded into a high frequency beam; and periodically transmitting the target synchronization information blocks to user equipment in a target cell using high frequency beams; wherein each of the SS burst sets comprises a first preset number of SS bursts that are periodically transmitted, each of the SS bursts includes a second preset number of the target synchronization information blocks that are transmitted in a spatial sequence, and the SS burst sets are periodically transmitted.