mhurhangee/ep-ind-claims huggingface dataset:
An aerosol-forming article comprising: an aerosol-forming substrate; a terminal hollow bore filter element at a downstream/mouth end of the article; and an upstream hollow bore filter element upstream of the terminal filter element; wherein the terminal hollow bore filter element has an axial bore having a smaller diameter than an axial bore in the upstream hollow bore filter element; characterised in that the axial length of the terminal hollow bore filter element is greater than the axial length of the upstream hollow bore filter element. an aerosol-forming substrate; a terminal hollow bore filter element at a downstream/mouth end of the article; and an upstream hollow bore filter element upstream of the terminal filter element; wherein the terminal hollow bore filter element has an axial bore having a smaller diameter than an axial bore in the upstream hollow bore filter element; characterised in that the axial length of the terminal hollow bore filter element is greater than the axial length of the upstream hollow bore filter element.
Optical device for controlling light comprising - a substrate with a boundary surface and with a border region contacting the boundary surface, - a waveguide formed within the substrate for guiding a light beam, and - an optical structure, wherein the waveguide bends towards the boundary surface of the substrate for directing the light beam at the optical structure, wherein the border region is arranged at least partially in an optical path between the waveguide and the optical structure, wherein there is provided for a contact structure contacting the border region at the boundary surface, characterized in that the contact structure has a refractive index, which is lower than the refractive index of the substrate in the border region. - a substrate with a boundary surface and with a border region contacting the boundary surface, - a waveguide formed within the substrate for guiding a light beam, and - an optical structure, wherein the waveguide bends towards the boundary surface of the substrate for directing the light beam at the optical structure, wherein the border region is arranged at least partially in an optical path between the waveguide and the optical structure, wherein there is provided for a contact structure contacting the border region at the boundary surface, characterized in that the contact structure has a refractive index, which is lower than the refractive index of the substrate in the border region.
Method to replace a straightening roll installed in a selectively removable manner on a rotation shaft, said method providing: - to hold and support a first end of said rotation shaft on a first support member of a first structure, - to selectively support and hold a second end, opposite said first end, of said rotation shaft on a second support member of a second structure, - to move said second structure, with a movement member, toward/away from said first structure to generate a maneuvering space for the installation and/or removal of said straightening roll from said rotation shaft, characterized in that when the installation of said straightening roll on said rotation shaft is required the method provides the following steps: - a support slider, with the at least one straightening roll, is positioned between said first structure and said second, mobile, structure; - said straightening roll is held on said mobile structure; - said support slider moves outside the space comprised between said first structure and said second mobile structure leaving said straightening roll on said second structure; - said second structure is moved toward said first structure to insert said straightening roll on said rotation shaft. - to hold and support a first end of said rotation shaft on a first support member of a first structure, - to selectively support and hold a second end, opposite said first end, of said rotation shaft on a second support member of a second structure, - to move said second structure, with a movement member, toward/away from said first structure to generate a maneuvering space for the installation and/or removal of said straightening roll from said rotation shaft, - a support slider, with the at least one straightening roll, is positioned between said first structure and said second, mobile, structure; - said straightening roll is held on said mobile structure; - said support slider moves outside the space comprised between said first structure and said second mobile structure leaving said straightening roll on said second structure; - said second structure is moved toward said first structure to insert said straightening roll on said rotation shaft.
A cutting-off machine, comprising: - a cutting unit being enabled to receive a tube and to cut the tube according to a plane transversal to a longitudinal axis of the tube; characterised in that said machine further comprises: - movement means enabled to grip stably a length of cut tube and move said length away from the cutting unit along a direction of advance of the tube; - a cutting-off device interposed between said cutting unit and said movement means and configured to realise cutting off of an inner welding seam floating inside said tube. - a cutting unit being enabled to receive a tube and to cut the tube according to a plane transversal to a longitudinal axis of the tube; characterised in that said machine further comprises: - movement means enabled to grip stably a length of cut tube and move said length away from the cutting unit along a direction of advance of the tube; - a cutting-off device interposed between said cutting unit and said movement means and configured to realise cutting off of an inner welding seam floating inside said tube. - movement means enabled to grip stably a length of cut tube and move said length away from the cutting unit along a direction of advance of the tube; - a cutting-off device interposed between said cutting unit and said movement means and configured to realise cutting off of an inner welding seam floating inside said tube.
A pneumatic tire having a specified rotation direction, comprising: a plurality of circumferential main grooves formed on a tread surface and extending in a tire circumferential direction; a plurality of lug grooves formed on the tread surface and extending in a tire lateral direction; a plurality of blocks wherein both sides of the each block being defined in the tire circumferential direction by the lug grooves and at least one end portion of the each block being defined in the tire lateral direction by the circumferential main grooves; and a plurality of block rows formed by aligning a plurality of the blocks in the tire circumferential direction; wherein given, a region in the tread surface inward from shoulder circumferential main grooves that are the circumferential main grooves positioned outermost in the tire lateral direction among the plurality of circumferential main grooves, as an inner region, and another each region in the tread surface outward from the shoulder circumferential main grooves in the tire lateral direction as outer regions, the inner region comprises a plurality of the block rows aligned in the tire lateral direction; the blocks each comprises narrow grooves that open to at least one of the circumferential main groove and the lug groove, and define the block into a plurality of small blocks, characterized in that the blocks positioned in the inner region are defined into three or more of the small blocks by the narrow grooves; the blocks positioned in the outer regions are defined into a number of small blocks by the narrow grooves, the number being at least one less than the number of the small blocks defined in the block positioned in the inner region, the small block that, among the plurality of small blocks belonging to a block of the blocks, comprises a portion of the block positioned on a frontmost side in a tire rotation direction is a leading-side block, the small block that, among the plurality of small blocks belonging to a block of the blocks, comprises a portion of the block positioned on a backmost side in the tire rotation direction is a trailing-side block, and the leading-side block has a surface area less than that of the trailing-side block. a plurality of circumferential main grooves formed on a tread surface and extending in a tire circumferential direction; a plurality of lug grooves formed on the tread surface and extending in a tire lateral direction; a plurality of blocks wherein both sides of the each block being defined in the tire circumferential direction by the lug grooves and at least one end portion of the each block being defined in the tire lateral direction by the circumferential main grooves; and a plurality of block rows formed by aligning a plurality of the blocks in the tire circumferential direction; wherein
A method for limiting a number of blind decodes performed by a user equipment, UE, in an LTE communications system, comprising: determining a first size of first and second downlink control information, DCI, formats, wherein the first DCI format carries information about a first uplink operation in a single codeword and the second DCI format carries information about at least one downlink operation in a single codeword, wherein the first DCI format comprises format 0 and the second DCI format comprises format 1A in the long term evolution, LTE standard; determining a second size of a third DCI format carrying information about a second uplink operation in a single codeword, wherein a number of information bits in the third DCI format is larger than a number of information bits in the first DCI format; adjusting a size of the second DCI format to match the second size and to obtain a fourth DCI format carrying information similar to the second DCI format, wherein the adjusting is performed by adding one or more zero bits to the second DCI format; generating a DCI message using one of the third or fourth DCI formats; and transmitting the DCI message to the UE, wherein the second size only exists in a UE-specific search space.. determining a first size of first and second downlink control information, DCI, formats, wherein the first DCI format carries information about a first uplink operation in a single codeword and the second DCI format carries information about at least one downlink operation in a single codeword, wherein the first DCI format comprises format 0 and the second DCI format comprises format 1A in the long term evolution, LTE standard; determining a second size of a third DCI format carrying information about a second uplink operation in a single codeword, wherein a number of information bits in the third DCI format is larger than a number of information bits in the first DCI format; adjusting a size of the second DCI format to match the second size and to obtain a fourth DCI format carrying information similar to the second DCI format, wherein the adjusting is performed by adding one or more zero bits to the second DCI format; generating a DCI message using one of the third or fourth DCI formats; and transmitting the DCI message to the UE, wherein the second size only exists in a UE-specific search space..
A process for producing an adhesive for a dermal patch comprising an acrylate-base polymer containing 5 mol% or more of acrylic acid and/or salt thereof as a monomer unit in which the content of β-hydroxypropionic acid and/or salt thereof is 5,000 ppm or less per solid content of the polymer and an aluminum compound, wherein a drying step of controlling the acrylate-base polymer to a temperature of 40 to 160°C or lower is included.
A method comprising: determining, using one or more sensor signals, dynamic state information for a tower of a wind turbine during power production, wherein the dynamic state information comprises determining velocity information and position information corresponding to a reference location of the tower and a tower frequency, the tower frequency depends from at least one of the velocity information and the position information; determining a first control loop gain value and a second control loop gain value using the tower frequency; and generating, using the first control loop gain value and the second control loop gain value, one or more control signals for controlling a rotational speed of a rotor of the wind turbine, the one or more control signals comprises: generating a pitch reference signal to control a pitch of one or more rotor blades of the wind turbine, wherein generating the pitch reference signal comprises applying the first control loop gain value to the velocity information and applying the second control loop gain value to the position information. determining a first control loop gain value and a second control loop gain value using the tower frequency; and generating, using the first control loop gain value and the second control loop gain value, one or more control signals for controlling a rotational speed of a rotor of the wind turbine, the one or more control signals comprises: generating a pitch reference signal to control a pitch of one or more rotor blades of the wind turbine, wherein generating the pitch reference signal comprises applying the first control loop gain value to the velocity information and applying the second control loop gain value to the position information.
A power headroom reporting, PHR, processing method, comprising: reporting a power headroom reporting media access control element, PHR MAC CE, to a target network side device, wherein a terminal aggregates a plurality of network side devices of different versions, and the PHR MAC CE includes PH information of one or more cells; wherein the PHR MAC CE comprises PH information of all cells configured or activated for the terminal; further comprising: for a multiple entry PHR MAC CE, using different logical channel identifiers, LCIDs, to represent multiple entry PHR MAC CEs with different lengths of component carrier, CC, bitmaps; or the PHR MAC CE includes only PH information of a cell that is identifiable by the target network side device in all cells configured or activated for the terminal; wherein when the target network side device is a secondary node, SN, of the terminal, the PHR MAC CE includes only PH information of a primary serving cell, Pcell, of the terminal or a serving cell of the target network side in all cells configured or activated for the terminal. reporting a power headroom reporting media access control element, PHR MAC CE, to a target network side device, wherein a terminal aggregates a plurality of network side devices of different versions, and the PHR MAC CE includes PH information of one or more cells; wherein the PHR MAC CE comprises PH information of all cells configured or activated for the terminal; further comprising: for a multiple entry PHR MAC CE, using different logical channel identifiers, LCIDs, to represent multiple entry PHR MAC CEs with different lengths of component carrier, CC, bitmaps; or the PHR MAC CE includes only PH information of a cell that is identifiable by the target network side device in all cells configured or activated for the terminal; wherein when the target network side device is a secondary node, SN, of the terminal, the PHR MAC CE includes only PH information of a primary serving cell, Pcell, of the terminal or a serving cell of the target network side in all cells configured or activated for the terminal.
An epoxy resin composition comprising an epoxy resin comprised of at least one solid epoxy resin; a liquid polyurethane toughener that is dissolved in the epoxy resin and, upon curing of the epoxy resin, the liquid polyurethane toughener phase separates into particles having a particle size of 50 nm to 2 micrometers determined according to the description; an epoxy hardener; and an epoxy soluble latent catalyst; wherein the viscosity of the epoxy resin composition, determined according to the description, has a viscosity less than a corresponding epoxy resin composition failing to contain the liquid polyurethane toughener. an epoxy resin comprised of at least one solid epoxy resin; a liquid polyurethane toughener that is dissolved in the epoxy resin and, upon curing of the epoxy resin, the liquid polyurethane toughener phase separates into particles having a particle size of 50 nm to 2 micrometers determined according to the description; an epoxy hardener; and an epoxy soluble latent catalyst; wherein the viscosity of the epoxy resin composition, determined according to the description, has a viscosity less than a corresponding epoxy resin composition failing to contain the liquid polyurethane toughener.
IMPROVED METHOD FOR MANUFACTURING CANDLES IN A CONTAINER of the type comprising a stage of attaching the wick to a stand, threading the wick through a longitudinal orifice made in a core, attaching the stand to the base of a container and positioning the core, leaving a cavity between the core and the walls of the container and pouring the filler material, characterised in that: 1. The filler material is poured at a controlled rate from a point not directly vertically above the upper opening of the longitudinal orifice. 2. The filler material is led through a series of channels to the base of the longitudinal orifice. 3. The longitudinal orifice is filled from the base thereof. 4. The longitudinal orifice and the cavity around the core are filled simultaneously. 5. The air previously present in the longitudinal orifice is expelled before the filler material covers the core. 1. The filler material is poured at a controlled rate from a point not directly vertically above the upper opening of the longitudinal orifice. 2. The filler material is led through a series of channels to the base of the longitudinal orifice. 3. The longitudinal orifice is filled from the base thereof. 4. The longitudinal orifice and the cavity around the core are filled simultaneously. 5. The air previously present in the longitudinal orifice is expelled before the filler material covers the core.
An adhesive composition comprising: (a) from 5 % to 90 % (w/w) of a reactive prepolymer selected from the group consisting of a polyisocyanate-based prepolymer, an epoxy-based prepolymer, or a combination thereof; and (b) from 10 % to 99 % (w/w) of an isolated polypeptide composition capable of dispersing the reactive prepolymer in an aqueous medium to produce a stable dispersion or a stable emulsion, wherein the dispersion or the emulsion exhibits no phase separation by visual inspection for at least 5 minutes after mixing the polypeptide composition with the reactive prepolymer, and wherein the polypeptide composition is derived from corn, wheat, sunflower, cotton, rapeseed, canola, castor, soy, camelina, flax, jatropha, mallow, peanuts, algae, tobacco, whey, or a combination thereof. (a) from 5 % to 90 % (w/w) of a reactive prepolymer selected from the group consisting of a polyisocyanate-based prepolymer, an epoxy-based prepolymer, or a combination thereof; and (b) from 10 % to 99 % (w/w) of an isolated polypeptide composition capable of dispersing the reactive prepolymer in an aqueous medium to produce a stable dispersion or a stable emulsion, wherein the dispersion or the emulsion exhibits no phase separation by visual inspection for at least 5 minutes after mixing the polypeptide composition with the reactive prepolymer, and wherein the polypeptide composition is derived from corn, wheat, sunflower, cotton, rapeseed, canola, castor, soy, camelina, flax, jatropha, mallow, peanuts, algae, tobacco, whey, or a combination thereof.
An ear canal earpiece having a first side towards an ear, an acoustic transducer (2, 52) for outputting a sound signal, a sound guide element (3, 53) having a first end facing the acoustic transducer (3, 53) and a second end facing the first side of the ear canal earpiece, wherein the sound guide element comprises a first opening at its second end for guiding the sound signal from an electroacoustic transducer (2, 52) to an ear canal of a user, and at least one volume element (5, 55) which delimits a volume and which has at least one second opening (6, 56) as only opening, wherein the second opening (6, 56) connects the volume with the first end of the earpiece when the ear canal earpiece is placed in the ear canal of a user, wherein the second opening (6, 56) is arranged at the first side of the earpiece, wherein the volume of the volume element (5, 55) together with the opening (6, 56) of the volume element (5, 55) forms a resonator when the ear canal earpiece is placed into the ear canal of the user, wherein the first opening and the second opening are arranged next to each other at the first side.
Portion capsule for producing a beverage, having a capsule body with a capsule base and a filling side, wherein a cavity for accommodating a pulverulent beverage substrate is formed between the capsule base and the filling side, and wherein a filter element is arranged between the beverage substrate and the capsule base, wherein the filter element is a nonwoven which is arranged in the region of the capsule base, wherein the diameter of the filter element is greater than the diameter of the capsule base, wherein in particular the filter element has larger dimensions than the capsule base on which it rests, with the result that the filter element stands up somewhat at the edge, wherein the filter element is arranged in the cavity and rests on a side of the capsule base that faces the filling side, wherein the filter element has an edge region which protrudes substantially in the direction of the filling side and/or is bent over in the direction of the filling side, wherein the edge region extends at least partially along a side wall region of the capsule body, wherein the side wall region extends between the filling side and the capsule base, wherein the nonwoven is arranged on the base of the capsule such that it is in contact over as much of its surface area as possible, wherein the portion capsule is characterized in that the filter element is simply fitted in the portion capsule only loosely, wherein the filter element is fixed in place by the beverage substrate, which, when filled into the portion capsule, is arranged on the filter element and thus secures the filter element.