mhurhangee/ep-ind-claims huggingface dataset:
A lint strainer for a laundry care apparatus, and comprising a filter, wherein - the lint strainer also comprises a flap impenetrable by air, wherein the filter and the flap are pivotally attached to each other at two pivot joints, such that, - in a closed position, the filter and the flap form an upwardly open bag-shaped air-filtering shell comprising at least one upwardly open air inlet for letting un-filtered air into the shell, the filter and the flap being in airtight contact below the pivot joints, that, - to bring the lint strainer in an open position, the flap is pivotable around the filter such that the airtight contact is released, and that, - in the open position, the filter and the flap are spaced apart below the pivot joints. - the lint strainer also comprises a flap impenetrable by air, wherein the filter and the flap are pivotally attached to each other at two pivot joints, such that, - in a closed position, the filter and the flap form an upwardly open bag-shaped air-filtering shell comprising at least one upwardly open air inlet for letting un-filtered air into the shell, the filter and the flap being in airtight contact below the pivot joints, that, - to bring the lint strainer in an open position, the flap is pivotable around the filter such that the airtight contact is released, and that, - in the open position, the filter and the flap are spaced apart below the pivot joints.
Method for manufacturing an emitter for electrospray generators, the method comprising the steps: - providing a substrate, the substrate comprising: a plate (1.3); at least one protrusion (1.1) with a base (1.2) located on a first side (1.3.1) of the plate (1.3); the at least one protrusion (1.1) ended in a tip (1.4); - nanotexturizing the outer surface of the at least one protrusion (1.1), characterized in that, nanotexturizing the outer surface process comprises the steps: a) covering the surface with a suspension comprising a carrier fluid and particles; b) removing the carrier fluid from the suspension leaving behind a mask comprising a plurality of the particles partially protecting the surface; c) carrying out, in a direction perpendicular to the plate (1.3), a main etching process for removing a predetermined depth of the substrate not being protected by the particles, wherein the main etching process is configured for showing a low-relief etched surface with nanowires emerging from the low-relief surface in a direction perpendicular to the plate (1.3) even in those nanowires (1.9) located on the protrusion (1.1). - providing a substrate, the substrate comprising: a plate (1.3); at least one protrusion (1.1) with a base (1.2) located on a first side (1.3.1) of the plate (1.3); the at least one protrusion (1.1) ended in a tip (1.4); a plate (1.3); at least one protrusion (1.1) with a base (1.2) located on a first side (1.3.1) of the plate (1.3); the at least one protrusion (1.1) ended in a tip (1.4); - nanotexturizing the outer surface of the at least one protrusion (1.1), a) covering the surface with a suspension comprising a carrier fluid and particles; b) removing the carrier fluid from the suspension leaving behind a mask comprising a plurality of the particles partially protecting the surface; c) carrying out, in a direction perpendicular to the plate (1.3), a main etching process for removing a predetermined depth of the substrate not being protected by the particles, wherein the main etching process is configured for showing a low-relief etched surface with nanowires emerging from the low-relief surface in a direction perpendicular to the plate (1.3) even in those nanowires (1.9) located on the protrusion (1.1).
A rotary piston and cylinder device comprising a rotor, a stator and a shutter disc, the rotor comprising a piston which extends from the rotor into the cylinder space, the rotor and the stator together defining the cylinder space, the shutter disc passing through the cylinder space and forming a partition therein, and the shutter disc comprising a slot which allows passage of the piston therethrough, the shutter disc comprising a circumferential surface arranged to form a seal with a surface of the rotor, the circumferential surface defining a profile which forms at least one close running line with said rotor surface, and characterised by the at least one close-running line being offset from a rotor plane which lies on a radius of the rotor and which includes the axis of rotation of the rotor.
A cosmetic container, comprising: a discharge unit discharging cosmetics; a discharge plate provided at one side of the discharge unit, including at least one discharge hole through which the cosmetics pass, and exposed to an outside to allow a user's puff to contact; and a diffusion portion provided between the discharge unit and the discharge plate and including a diffusion space for delivering the cosmetics to the at least one discharge hole, wherein the diffusion portion comprises a close contact surface provided on an outer side of the diffusion space and making a close surface contact with the discharge plate to form sealing. a discharge unit discharging cosmetics; a discharge plate provided at one side of the discharge unit, including at least one discharge hole through which the cosmetics pass, and exposed to an outside to allow a user's puff to contact; and a diffusion portion provided between the discharge unit and the discharge plate and including a diffusion space for delivering the cosmetics to the at least one discharge hole, wherein the diffusion portion comprises a close contact surface provided on an outer side of the diffusion space and making a close surface contact with the discharge plate to form sealing.
A battery charger comprising: a housing defining cavity; a tray defining a receptacle and receivable within the cavity, the receptacle being operable to receive a battery pack, the tray being movable relative to the housing between a closed position, in which the receptacle is closed, and an open position, in which the receptacle is accessible; and a user interface coupled to the tray and operable to pivot the tray between a locked position, in which the tray is fixed relative to the housing, and an unlocked position, in which the tray is movable between the open position and the closed position. a housing defining cavity; a tray defining a receptacle and receivable within the cavity, the receptacle being operable to receive a battery pack, the tray being movable relative to the housing between a closed position, in which the receptacle is closed, and an open position, in which the receptacle is accessible; and a user interface coupled to the tray and operable to pivot the tray between a locked position, in which the tray is fixed relative to the housing, and an unlocked position, in which the tray is movable between the open position and the closed position.
A method for surface roughening a metal work piece, comprising: disposing a surface of the work piece to be roughened proximate to a counter electrode; then disposing the surface of the work piece and the counter electrode together in an electrolyte; and applying an electric potential with current flow between the work piece and the counter electrode to roughen the surface of the work piece to a desired roughness; wherein disposing the surface of the work piece to be roughened proximate to the counter electrode comprises disposing at least one spacer between the work piece to be roughened and the counter electrode; characterized in that: the method further comprises positioning at least one electrical bus pad proximate each of the at least one spacer, wherein each of the at least one electrical bus pads is configured to exert a compression force on at least one spacer and provide contact for passage of electrical current to the workpiece. disposing a surface of the work piece to be roughened proximate to a counter electrode; then disposing the surface of the work piece and the counter electrode together in an electrolyte; and applying an electric potential with current flow between the work piece and the counter electrode to roughen the surface of the work piece to a desired roughness; wherein disposing the surface of the work piece to be roughened proximate to the counter electrode comprises disposing at least one spacer between the work piece to be roughened and the counter electrode; characterized in that: the method further comprises positioning at least one electrical bus pad proximate each of the at least one spacer, wherein each of the at least one electrical bus pads is configured to exert a compression force on at least one spacer and provide contact for passage of electrical current to the workpiece.
A method performed by a terminal (2d-10) in a communication system, the method comprising: receiving (2d-40), from a base station (2d-15), a radio resource control, RRC, message for transitioning a state of the terminal (2d-10) from an RRC connected state to an RRC inactive state, wherein the message includes access barring information configured for each of data radio bearers, DRBs, associated with the RRC inactive state, the DRBs being configured in an access stratum, AS, of the terminal (2d-10); in case that an access is triggered in the RRC inactive state, determining (2d-55) whether the access is barred based on the access barring information configured for a DRB associated with the access; and in case that the access is not barred, performing (2d-45) the access to the base station (2d-15). receiving (2d-40), from a base station (2d-15), a radio resource control, RRC, message for transitioning a state of the terminal (2d-10) from an RRC connected state to an RRC inactive state, wherein the message includes access barring information configured for each of data radio bearers, DRBs, associated with the RRC inactive state, the DRBs being configured in an access stratum, AS, of the terminal (2d-10); in case that an access is triggered in the RRC inactive state, determining (2d-55) whether the access is barred based on the access barring information configured for a DRB associated with the access; and in case that the access is not barred, performing (2d-45) the access to the base station (2d-15).
An optical shear sensor comprising a first and a second outer surface at opposing sides of the optical shear sensor and at least one sensing element, the at least one sensing element comprising an optoelectronic source for emitting light of a predetermined wavelength, the optoelectronic source having a source front surface being the outer surface of the optoelectronic source where light of the predetermined wavelength exits the optoelectronic source and at least one photodetector for detecting light of the predetermined wavelength, the at least one photodetector having a detector front surface being the outer surface of the photodetector where light of the optoelectronic source is provided to be received, the optoelectronic source being positioned along the first surface and emits light towards the second surface, characterized in that a flexible sensing layer covers both the front surface of the optoelectronic source and the front surface of the photodetector, the sensing layer being transparent to the predetermined wavelength and in that the optoelectronic source, the photodetector, the second outer surface and the sensing layer are arranged such that upon application of a shear stress onto the optical shear sensor the sensing layer deforms elastically and the first and the second outer surface are displaced along directions parallel to each other and the source front surface such that the intensity of light emitted by the optoelectronic source detected by the photodetector changes, the change in intensity of light emitted by the optoelectronic source detected by the photodetector being indicative of the applied shear stress.
A compound of formula I wherein R 1 is selected from the group consisting of a) wherein each ring may be optionally substituted with one substituent R c; and b) wherein each alkyl residue may be substituted with 1 to 3 F atoms; and c) R c is selected from the group consisting of Cl, C 1-3 -alkyl, cyclopropyl, F 3 C-, and isopropyl-O-; A is selected from the group consisting of a) each of which may be additionally substituted with one CN group or with one or two F atoms; and b) and and T is selected from the group consisting of NC-, CH 3 -S-, CH 3 -CH 2 -NH-C(=O)-, CH 3 -S(=O) 2 -CH 2 -, and CH 3 -S(=O) 2 -; or a salt thereof. R 1 is selected from the group consisting of a) wherein each ring may be optionally substituted with one substituent R c; and b) wherein each alkyl residue may be substituted with 1 to 3 F atoms; and c) a) wherein each ring may be optionally substituted with one substituent R c; and b) wherein each alkyl residue may be substituted with 1 to 3 F atoms; and c) R c is selected from the group consisting of Cl, C 1-3 -alkyl, cyclopropyl, F 3 C-, and isopropyl-O-; A is selected from the group consisting of a) each of which may be additionally substituted with one CN group or with one or two F atoms; and b) and and a) each of which may be additionally substituted with one CN group or with one or two F atoms; and b) and and T is selected from the group consisting of NC-, CH 3 -S-, CH 3 -CH 2 -NH-C(=O)-, CH 3 -S(=O) 2 -CH 2 -, and CH 3 -S(=O) 2 -; or a salt thereof.
An apparatus, configured to: quantize an input vector using a first quantization stage resulting in a residual vector, wherein the first quantization stage comprises a codebook having a plurality of codevectors wherein the quantized input vector is represented as a codevector index; split a plurality of vector components of the residual vector of the input vector into at least two groups of vector components in a predefined manner, wherein the vector components of the input vector are line spectral frequency coefficients of an input audio signal; swap a vector component of a first group of the at least two groups of vector components for a vector component of a second group of the at least two groups of vector components until each group of the at least two groups of vector coefficients fulfils a predefined rule; and quantize, for at least one of the at least two groups of vector components with a second quantization stage comprising a plurality of lattice structures, wherein a lattice structure used for the quantization of the at least one of the at least two groups of vector components is selected from the plurality of lattice structures based on the codevector index from the first quantization stage. quantize an input vector using a first quantization stage resulting in a residual vector, wherein the first quantization stage comprises a codebook having a plurality of codevectors wherein the quantized input vector is represented as a codevector index; split a plurality of vector components of the residual vector of the input vector into at least two groups of vector components in a predefined manner, wherein the vector components of the input vector are line spectral frequency coefficients of an input audio signal; swap a vector component of a first group of the at least two groups of vector components for a vector component of a second group of the at least two groups of vector components until each group of the at least two groups of vector coefficients fulfils a predefined rule; and quantize, for at least one of the at least two groups of vector components with a second quantization stage comprising a plurality of lattice structures, wherein a lattice structure used for the quantization of the at least one of the at least two groups of vector components is selected from the plurality of lattice structures based on the codevector index from the first quantization stage.
A method of manufacturing a bipolar cell for a bipolar lead acid battery by supplying a bipolar plate, wherein a positive active material and a negative active material are applied at opposite sides thereof substantially simultaneously, characterized in that the bipolar plate includes porous structures at opposite sides thereof, wherein pastes (7a, 7b) of a positive active material and a negative active material are applied into cavities of the respective porous structures, wherein the pastes (7a, 7b) form a continuous layer on top of the respective porous structures, which is thinner than 20% of the thickness of the porous structures.
A battery fastening system for fastening a battery in a vehicle, the battery fastening system comprises: a battery tray having a length direction and a width direction, wherein the battery tray is configured for being fastened to the vehicle; a first corner fastening device for limiting movement of the battery towards a first side in the length direction and towards a first side in the width direction, and for securing the battery to the battery tray, a second corner fastening device for limiting movement of the battery towards the first side in the length direction and towards a second side in the width direction, and for securing the battery to the battery tray, wherein the second corner fastening device is securable to the battery tray in at least two different positions in the width direction for enabling fastening of batteries with at least two different sizes in the width direction, a clamping element for limiting movement of the battery towards a second side in the length direction, and for securing the battery to the battery tray, wherein the clamping element is securable to the battery tray in at least two different positions in the length direction for enabling fastening of batteries with at least two different sizes in the length direction, where each of the first corner fastening device and the second corner fastening device is arranged to be located at a unique corner of the battery. a battery tray having a length direction and a width direction, wherein the battery tray is configured for being fastened to the vehicle; a first corner fastening device for limiting movement of the battery towards a first side in the length direction and towards a first side in the width direction, and for securing the battery to the battery tray, a second corner fastening device for limiting movement of the battery towards the first side in the length direction and towards a second side in the width direction, and for securing the battery to the battery tray, wherein the second corner fastening device is securable to the battery tray in at least two different positions in the width direction for enabling fastening of batteries with at least two different sizes in the width direction, a clamping element for limiting movement of the battery towards a second side in the length direction, and for securing the battery to the battery tray, wherein the clamping element is securable to the battery tray in at least two different positions in the length direction for enabling fastening of batteries with at least two different sizes in the length direction, where each of the first corner fastening device and the second corner fastening device is arranged to be located at a unique corner of the battery.
Process for the preparation of trimeric and quaternary silicon compounds of the general formula Si 3 X 8 and Si 4 X 10 or of trimeric and quaternary germanium compounds of the general formula Ge 3 X 8 and Ge 4 X 10 a) where a mixture of silicon compounds of the general formula Si n (R 1... R 2n+2) or a mixture of germanium compounds of the general formula Ge n (R 1... R 2n+2) with n ≥ 3, and R 1 to R 2n+2 is hydrogen and/or X and X = halogen, and the halogen is selected from chlorine, bromine and/or iodine, is exposed to a nonthermal plasma, and b) the resulting phase is subjected at least once to a vacuum rectification and filtration, where silicon compounds of the general formula Si 3 X 8 and Si 4 X 10 or germanium compounds of the general formula Ge 3 X 8 and Ge 4 X 10 are obtained. a) where a mixture of silicon compounds of the general formula Si n (R 1... R 2n+2) or a mixture of germanium compounds of the general formula Ge n (R 1... R 2n+2) with n ≥ 3, and R 1 to R 2n+2 is hydrogen and/or X and X = halogen, and the halogen is selected from chlorine, bromine and/or iodine, is exposed to a nonthermal plasma, and with n ≥ 3, and R 1 to R 2n+2 is hydrogen and/or X and X = halogen, and the halogen is selected from chlorine, bromine and/or iodine, b) the resulting phase is subjected at least once to a vacuum rectification and filtration, where silicon compounds of the general formula Si 3 X 8 and Si 4 X 10 or germanium compounds of the general formula Ge 3 X 8 and Ge 4 X 10 are obtained.
Peptide of general formula: R 1 - n -X 1 -Pro-X 2 -Gly-Pro-X 3 -X 4 - p -R 2 wherein X 1 represents glycine or alanine or valine, X 2 represents glycine or alanine or valine, X 3 represents asparagine or lysine or glutamine or no amino acid, X 4 represents phenylalanine or tyrosine or no amino acid, AA represents any amino acid and n and p are integers between 0 and 2, R 1 represents the primary amine function of the N-terminal amino acid, -NH2, wherein one of the two hydrogen atoms can be substituted either by a saturated or unsaturated C 1 to C 30 alkyl chain, or by an acyl-type group (R-CO-) wherein the radical R is a saturated or unsaturated C 1 to C 30 alkyl chain and preferably a methyl, or by an aromatic group of the benzoyl, tosyl or benzyloxycarbonyl type, R 2 represents the hydroxyl group of the carboxyl function of the C-terminal amino acid, -OH, wherein the hydrogen atom can be substituted by a C 1 to C 30 alkyl chain, or an NH 2, NHY or NYY group, wherein Y represents a C 1 to C 4 alkyl chain, said sequence of general formula consisting of 5 to 11 amino acid residues and capable of being in the form of salts, characterised in that it corresponds to one of the following sequences: (SEQ ID n°1): Ala-Pro-Ala-Gly-Pro-NH 2 (SEQ ID n°2): Val-Pro-Ala-Gly-Pro (SEQ ID n°3): Val-Pro-Gly-Gly-Pro-NH 2 (SEQ ID n°4): Gly-Pro-Ala-Gly-Pro (SEQ ID n°5): Gly-Pro-Ala-Gly-Pro-NH 2 (SEQ ID n°6): Lys-Gly-Ala-Pro-Gly-Gly-Pro-Asn-Tyr-NH 2. X 1 represents glycine or alanine or valine, X 2 represents glycine or alanine or valine, X 3 represents asparagine or lysine or glutamine or no amino acid, X 4 represents phenylalanine or tyrosine or no amino acid, AA represents any amino acid and n and p are integers between 0 and 2, R 1 represents the primary amine function of the N-terminal amino acid, -NH2, wherein one of the two hydrogen atoms can be substituted either by a saturated or unsaturated C 1 to C 30 alkyl chain, or by an acyl-type group (R-CO-) wherein the radical R is a saturated or unsaturated C 1 to C 30 alkyl chain and preferably a methyl, or by an aromatic group of the benzoyl, tosyl or benzyloxycarbonyl type, R 2 represents the hydroxyl group of the carboxyl function of the C-terminal amino acid, -OH, wherein the hydrogen atom can be substituted by a C 1 to C 30 alkyl chain, or an NH 2, NHY or NYY group, wherein Y represents a C 1 to C 4 alkyl chain, (SEQ ID n°1): Ala-Pro-Ala-Gly-Pro-NH 2 (SEQ ID n°2): Val-Pro-Ala-Gly-Pro (SEQ ID n°3): Val-Pro-Gly-Gly-Pro-NH 2 (SEQ ID n°4): Gly-Pro-Ala-Gly-Pro (SEQ ID n°5): Gly-Pro-Ala-Gly-Pro-NH 2 (SEQ ID n°6): Lys-Gly-Ala-Pro-Gly-Gly-Pro-Asn-Tyr-NH 2.