mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a flowable cosmetic cleansing agent, containing solid components, characterized in that (i) in a first step, - one or more surfactant(s), selected from anionic and/or amphoteric/zwitterionic surfactants, - solid components, - water, and - possibly further optional ingredients, are mixed together, (ii) in a second step, a cross-linked (meth)acrylate copolymer a) that is substituted with amino groups, or a commercial product containing a cross-linked (meth)acrylate copolymer b) that is substituted with amino groups, is mixed with water and added to the mixture (i), and (iii) the mixture from (i) and (ii) is neutralized in a third step and subsequently thickened, preferably using sodium chloride, the cosmetic cleansing agent having a pH in the range of from 3.5 to 6, preferably from 4 to 5.5, and in particular from 4.5 to 5. (i) in a first step, - one or more surfactant(s), selected from anionic and/or amphoteric/zwitterionic surfactants, - solid components, - water, and - possibly further optional ingredients, are mixed together, - one or more surfactant(s), selected from anionic and/or amphoteric/zwitterionic surfactants, - solid components, - water, and - possibly further optional ingredients, are mixed together, (ii) in a second step, a cross-linked (meth)acrylate copolymer a) that is substituted with amino groups, or a commercial product containing a cross-linked (meth)acrylate copolymer b) that is substituted with amino groups, is mixed with water and added to the mixture (i), and (iii) the mixture from (i) and (ii) is neutralized in a third step and subsequently thickened, preferably using sodium chloride,
A device, comprising an object comprising a planar bearing region and a carrier plate comprising a bearing region which is arranged plane-parallel to the bearing region of the object, wherein the object is rotatable in relation to the bearing plate in one of two possible opposing rotational directions (R 1, R 2) and is displaceable in a predetermined direction, characterized in that bearing surfaces of the bearing regions (4, 5) facing toward one another each comprise closed, peripheral running grooves (44, 45, 51), in which roller bodies are guided, wherein the running grooves (44, 45, 51) are formed in such a way that if a force acts on the object in a direction defined in the plane of the bearing region, the object is movable in an at least partially positively-guided, simultaneously rotational and translational movement from a starting position into an intermediate position, during which the object is rotated in relation to the bearing plate in one of two possible opposing rotational directions (R 1, R 2) and is displaced in a predetermined direction, and wherein the object, after the movement into the intermediate position, is pivotable in relation to the carrier plate further in the one of two possible opposing rotational directions (R 1, R 2) and is displaceable opposite to the predetermined direction and occupies the base position again upon a pivot by 180°.
Method for the cleanup of sites or sediments contaminated by heavy metals, or by halogenated aromatic compounds, such as polychlorobenzoates, chlorobenzoate, or monochlorophenol, or polychlorophenols, or polychlorobiphenyl compounds, or phosphogypsum, comprising treating the contaminated sites or sediments by anaerobic mesophilic bacteria of Mesotoga lineage belonging to the order of Thermotogales.
Electric motor, in particular for operating a pump, comprising a rotor and a stator, wherein the stator has an inner pole sleeve, extending in the axial direction, and an outer stator sleeve, pole limbs on which a winding is embodied being disposed therebetween in the radial direction, wherein - a defined gap (S'), in which the inner pole sleeve is disposed, is configured between the outer shell face of the inner pole sleeve and the inner shell face of the inner pole sleeve, and - an inevitable air gap is configured between the inner shell face of the inner pole sleeve and the outer shell face of the rotor, such that a transition region having a radial gap spacing (Δr s-s') is formed between the outer shell face of the inner pole sleeve and the outer shell face of the rotor, said transition region being composed of the gap (S') in which the inner pole sleeve is disposed and the inevitable air gap, characterized in that at least the inner pole sleeve of the stator is configured from a soft magnetic powder composite material, as a result of which a radial gap spacing (Δr s) of the transition region, in which a magnetic resistance is formed that counteracts the magnetic flux between the coil body and the rotor, is reduced to the inevitable air gap between the inner shell face of the inner pole sleeve and the outer shell face of the rotor. - a defined gap (S'), in which the inner pole sleeve is disposed, is configured between the outer shell face of the inner pole sleeve and the inner shell face of the inner pole sleeve, and - an inevitable air gap is configured between the inner shell face of the inner pole sleeve and the outer shell face of the rotor, such that a transition region having a radial gap spacing (Δr s-s') is formed between the outer shell face of the inner pole sleeve and the outer shell face of the rotor, said transition region being composed of the gap (S') in which the inner pole sleeve is disposed and the inevitable air gap,
A coffee machine configured for providing coffee brew with reduced caffeine content comprising - a mixer configured for mixing coffee grind and a caffeine-reducing additive, the mixer having a coffee inlet for receiving the coffee grind, an additive inlet for receiving the caffeine-reducing additive, and a mixer outlet for providing a mixture of coffee grind and additive, and - a brewing unit configured for brewing the mixture of coffee grind and additive, the brewing unit having a brewing unit inlet and a brewing unit outlet for providing coffee brew, wherein the brewing unit inlet of the brewing unit is connected to the mixer outlet of the mixer for receiving the mixture of coffee grind and additive, the coffee machine being characterized by further comprising: - a grinder configured for grinding coffee beans and/or the additive, wherein the grinder is further configured as the mixer for mixing coffee grind and additive. - a mixer configured for mixing coffee grind and a caffeine-reducing additive, the mixer having a coffee inlet for receiving the coffee grind, an additive inlet for receiving the caffeine-reducing additive, and a mixer outlet for providing a mixture of coffee grind and additive, and - a brewing unit configured for brewing the mixture of coffee grind and additive, the brewing unit having a brewing unit inlet and a brewing unit outlet for providing coffee brew, wherein the brewing unit inlet of the brewing unit is connected to the mixer outlet of the mixer for receiving the mixture of coffee grind and additive, the coffee machine being characterized by further comprising: - a grinder configured for grinding coffee beans and/or the additive, wherein the grinder is further configured as the mixer for mixing coffee grind and additive. - a grinder configured for grinding coffee beans and/or the additive, wherein the grinder is further configured as the mixer for mixing coffee grind and additive.
A light emitting device package comprising: a package body having a recess-shaped mount for mounting a light emitting diode, and through holes (12, 13); a seed metal layer formed on the package body; electrodes formed on the seed metal layer, the electrodes connected with the light emitting diode electrically, wherein the electrodes comprise an adhesion layer, an electrode metal, and a diffusion barrier layer that is between the adhesion layer and the electrode metal; and a reflective layer arranged on the electrodes, the reflective layer having openings, wherein the seed metal is made of at least one of Au, Cu, and Al, wherein the adhesion layer is made of at least one of Ti, Cr, and Ta, and couples the electrode metal to the seed metal, wherein the electrode metal layer is made of at least one of Au, Cu, and Al, and wherein the diffusion barrier layer is made of at least one of Pt and Ni, and prevents a material in the adhesion layer from being diffused into the electrode metal. a package body having a recess-shaped mount for mounting a light emitting diode, and through holes (12, 13); a seed metal layer formed on the package body; electrodes formed on the seed metal layer, the electrodes connected with the light emitting diode electrically, wherein the electrodes comprise an adhesion layer, an electrode metal, and a diffusion barrier layer that is between the adhesion layer and the electrode metal; and a reflective layer arranged on the electrodes, the reflective layer having openings, wherein the seed metal is made of at least one of Au, Cu, and Al, wherein the adhesion layer is made of at least one of Ti, Cr, and Ta, and couples the electrode metal to the seed metal, wherein the electrode metal layer is made of at least one of Au, Cu, and Al, and wherein the diffusion barrier layer is made of at least one of Pt and Ni, and prevents a material in the adhesion layer from being diffused into the electrode metal.
A resin composition comprising: 40 to 99 % by mass of a fluorine-based resin; and 1 to 60 % by mass of a matting agent, wherein the resin composition further comprises 0.1 to 40 parts by mass of an acrylic resin with respect to a total of 100 parts by mass of the fluorine-based resin and the matting agent, the acrylic resin being a polymer not containing a hydroxyl group; a swell ratio as measured under the conditions of a measurement temperature of 230°C, an ambient temperature of 23°C, and a shear rate of 96 (1/sec) is 0.90 to 2.00, the swell ratio being as measured and calculated by melting the resin composition at a temperature of 230°C using a capillary rheometer (orifice diameter φ1 mm, L = 10 mm) and then the strand diameter at a position 4.0 cm from the front end portion of the orifice is measured while the resin composition is discharged in the vertical direction at a shear rate of 96 (1/sec), and the swell ratio is calculated from the ratio of the strand diameter to the orifice diameter; and a MFR (MFR A+C) of a melt-kneaded product of the fluorine-based resin and the acrylic resin and a MFR (MFR B) of the matting agent as measured under the conditions of a temperature of 230°C and a load of 49 N satisfy the following Expression. MFR A + C − MFR B ≤ 15.0 g/ 10 min 40 to 99 % by mass of a fluorine-based resin; and 1 to 60 % by mass of a matting agent, wherein the resin composition further comprises 0.1 to 40 parts by mass of an acrylic resin with respect to a total of 100 parts by mass of the fluorine-based resin and the matting agent, the acrylic resin being a polymer not containing a hydroxyl group; a swell ratio as measured under the conditions of a measurement temperature of 230°C, an ambient temperature of 23°C, and a shear rate of 96 (1/sec) is 0.90 to 2.00, the swell ratio being as measured and calculated by melting the resin composition at a temperature of 230°C using a capillary rheometer (orifice diameter φ1 mm, L = 10 mm) and then the strand diameter at a position 4.0 cm from the front end portion of the orifice is measured while the resin composition is discharged in the vertical direction at a shear rate of 96 (1/sec), and the swell ratio is calculated from the ratio of the strand diameter to the orifice diameter; and a MFR (MFR A+C) of a melt-kneaded product of the fluorine-based resin and the acrylic resin and a MFR (MFR B) of the matting agent as measured under the conditions of a temperature of 230°C and a load of 49 N satisfy the following Expression. MFR A + C − MFR B ≤ 15.0 g/ 10 min
A biologically compatible composite comprising - a structural part, - a porous part (3, 6, 14), wherein said structural part and said porous part (3, 6, 14) both comprise fibres and a matrix and further comprising - at least two interconnecting parts (4, 10, 12) arranged at a distance from each other and extending from the structural part to the porous part (3, 6, 14), thus connecting them to each other, - each interconnecting part (4, 10, 12) is made of a polymer, a filled polymer or a composite comprising a polymeric matrix material, fillers and reinforcing material, and - at least one of the interconnecting parts (4, 10, 12) is attached into the structural and porous parts (3, 6, 14), and - each interconnecting part (4, 10, 12) is in the form of a band having a length, a width and a height, the width and the height both being independently at most 20 % of the length of the band, characterised in that the fibres of the structural part are in the form of a woven fabric or a unidirectional fibre roving. - a structural part, - a porous part (3, 6, 14), wherein said structural part and said porous part (3, 6, 14) both comprise fibres and a matrix and further comprising - at least two interconnecting parts (4, 10, 12) arranged at a distance from each other and extending from the structural part to the porous part (3, 6, 14), thus connecting them to each other, - each interconnecting part (4, 10, 12) is made of a polymer, a filled polymer or a composite comprising a polymeric matrix material, fillers and reinforcing material, and - at least one of the interconnecting parts (4, 10, 12) is attached into the structural and porous parts (3, 6, 14), and - each interconnecting part (4, 10, 12) is in the form of a band having a length, a width and a height, the width and the height both being independently at most 20 % of the length of the band,
A catheter system comprising: a balloon catheter comprising an expandable member; an aspiration catheter configured to extend beyond a distal end of the balloon catheter; and a non-rotatable wire guide comprising a cutting head, wherein the cutting head comprises a proximal end and a distal end, wherein the proximal end comprises a concave shape and the distal end comprises a convex shape, wherein the concave shape comprises a most proximal end and a most distal end, wherein the proximal end of the cutting head comprises a diameter, wherein a ratio of a length between the distal end of the cutting head and the most proximal end of the concave shape relative to the diameter of the cutting head is between 1.5:1 and 3:1, wherein the non-rotatable wire guide such is configured to translate back and forth axially without rotating; wherein the non-rotatable wire guide is configured to be connected to an ultrasonic generator to apply ultrasonic energy to the non-rotatable wire guide such that the cutting head of the non-rotatable wire guide translates back and forth axially without rotating. a balloon catheter comprising an expandable member; an aspiration catheter configured to extend beyond a distal end of the balloon catheter; and a non-rotatable wire guide comprising a cutting head, wherein the cutting head comprises a proximal end and a distal end, wherein the proximal end comprises a concave shape and the distal end comprises a convex shape, wherein the concave shape comprises a most proximal end and a most distal end, wherein the proximal end of the cutting head comprises a diameter, wherein a ratio of a length between the distal end of the cutting head and the most proximal end of the concave shape relative to the diameter of the cutting head is between 1.5:1 and 3:1, wherein the non-rotatable wire guide such is configured to translate back and forth axially without rotating; wherein the non-rotatable wire guide is configured to be connected to an ultrasonic generator to apply ultrasonic energy to the non-rotatable wire guide such that the cutting head of the non-rotatable wire guide translates back and forth axially without rotating.
A method of producing an aromatic hydrocarbon and olefin, comprising: (a) subjecting an oil including a large amount of a polycyclic aromatic compound having two or more rings to partial hydrogenation under reaction conditions of 310∼360°C, 50∼70 atm, and LHSV (Liquid Hourly Space Velocity) of 0.7∼1.0 hr -1 using a hydrogenation catalyst, thus obtaining a partially hydrogenated component; (b) subjecting the partially hydrogenated component obtained in (a) to catalytic cracking using a catalytic cracking catalyst, thus obtaining a catalytic cracked component, wherein the catalytic cracking catalyst is provided in the form of a combination of a zeolite molecular sieve selected from among FAU, MOR, and BEA and having a large pore size of 6.5 Å or more and a zeolite molecular sieve selected from among MFI, MEL, and FER and having a medium pore size of 5∼6.5 Å, and the weight ratio of the zeolite molecular sieve having a large pore size to the zeolite molecular sieve having a medium pore size is 5/95∼95/5; and (c) separating the catalytic cracked component obtained in (b) into (i) benzene, toluene, xylene and a C9+ aromatic hydrocarbon, (ii) an olefin component, and (iii) a residual oil. (a) subjecting an oil including a large amount of a polycyclic aromatic compound having two or more rings to partial hydrogenation under reaction conditions of 310∼360°C, 50∼70 atm, and LHSV (Liquid Hourly Space Velocity) of 0.7∼1.0 hr -1 using a hydrogenation catalyst, thus obtaining a partially hydrogenated component; (b) subjecting the partially hydrogenated component obtained in (a) to catalytic cracking using a catalytic cracking catalyst, thus obtaining a catalytic cracked component, wherein the catalytic cracking catalyst is provided in the form of a combination of a zeolite molecular sieve selected from among FAU, MOR, and BEA and having a large pore size of 6.5 Å or more and a zeolite molecular sieve selected from among MFI, MEL, and FER and having a medium pore size of 5∼6.5 Å, and the weight ratio of the zeolite molecular sieve having a large pore size to the zeolite molecular sieve having a medium pore size is 5/95∼95/5; and (c) separating the catalytic cracked component obtained in (b) into (i) benzene, toluene, xylene and a C9+ aromatic hydrocarbon, (ii) an olefin component, and (iii) a residual oil.
A method, comprising: capturing multimedia content by an apparatus, said multimedia content comprising at least an audio signal and a video signal; detecting one or more objects appearing on a video scene represented by the video signal; determining, from said one or more objects appearing on the video scene, one or more audio sources, wherein an audio source is an object producing a sound characterised by determining a priority value for each audio source appearing on the video scene in proportion to an image area covered by the audio source in said video scene; and adjusting noise suppression of the audio signal according to the priority value such that the noise suppression applied to background noise is increased in proportion to the highest priority value of the audio source, wherein the background noise is originating from sound sources not appearing on the video scene. capturing multimedia content by an apparatus, said multimedia content comprising at least an audio signal and a video signal; detecting one or more objects appearing on a video scene represented by the video signal; determining, from said one or more objects appearing on the video scene, one or more audio sources, wherein an audio source is an object producing a sound characterised by determining a priority value for each audio source appearing on the video scene in proportion to an image area covered by the audio source in said video scene; and adjusting noise suppression of the audio signal according to the priority value such that the noise suppression applied to background noise is increased in proportion to the highest priority value of the audio source, wherein the background noise is originating from sound sources not appearing on the video scene.
A method for handling the failure of a first Mobility Access Gateway, MAG, the method being carried out at a Local Mobility Anchor, LMA, responsible for a User Equipment, UE, associated with the first MAG, the UE being in an idle mode, the method comprising: - detecting, by the LMA, a failure of the first MAG; - determining that the UE is served by the first MAG; and - transmitting a notification message (100, 102) towards a selected second MAG including instructions to re-attach the UE that was previously in the idle mode through the selected second MAG. - detecting, by the LMA, a failure of the first MAG; - determining that the UE is served by the first MAG; and - transmitting a notification message (100, 102) towards a selected second MAG including instructions to re-attach the UE that was previously in the idle mode through the selected second MAG.
Apparatus (1, 31, 41, 51) for tensile testing of an optical fiber, wherein the apparatus comprises: a dual pulley (6, 6') with a first circumferential surface having a first diameter and with a second circumferential surface having a second diameter which is larger than the first diameter, characterized by a first drive belt section (2, 32) contacting the first circumferential surface of the dual pulley (6, 6') and a second drive belt section (3, 33) contacting a second circumferential surface of the dual pulley, a fiber inlet which is delimited by the first circumferential surface and the first drive belt section (2, 32) contacting the first circumferential surface, a fiber outlet which is delimited by the second circumferential surface and the second drive belt section (3, 33 contacting the second circumferential surface, a guide (12, 12') passing the optical fiber from the fiber inlet to the fiber outlet, and one single drive unit which rotates the first drive belt section (2, 32) and the second drive belt section (3, 33) around belt pulleys side by side along their entire length. a dual pulley (6, 6') with a first circumferential surface having a first diameter and with a second circumferential surface having a second diameter which is larger than the first diameter, characterized by a first drive belt section (2, 32) contacting the first circumferential surface of the dual pulley (6, 6') and a second drive belt section (3, 33) contacting a second circumferential surface of the dual pulley, a fiber inlet which is delimited by the first circumferential surface and the first drive belt section (2, 32) contacting the first circumferential surface, a fiber outlet which is delimited by the second circumferential surface and the second drive belt section (3, 33 contacting the second circumferential surface, a guide (12, 12') passing the optical fiber from the fiber inlet to the fiber outlet, and one single drive unit which rotates the first drive belt section (2, 32) and the second drive belt section (3, 33) around belt pulleys side by side along their entire length.