mhurhangee/ep-ind-claims huggingface dataset:
An agent for the straightening, permanent shaping or depilation of keratin fibers, in particular human hair, containing (a) at least one linear alkan-1-ol or alken-1-ol in each case having 20 to 22 carbon atoms, the at least one alken-1-ol having one to four olefinic double bonds, in a total amount of 1.8 to 10.0 wt.%, based on the weight of the agent, and (b) at least one glyceryl fatty acid ester of general formula, where R1, R2 and R3, independently of one another, represent a hydrogen atom or a group of formula, where R4 represents an unbranched or branched, saturated or unsaturated C 11 -C 27 alkyl group, with the proviso that at least one and at most two of the functional groups selected from R1, R2, and R3 represent a group of formula, and (c) water and (d) at least one keratin-reducing compound, selected from thioglycolic acid and the salts thereof and/or thiolactic acid and the salts thereof and/or cysteine and/or acetylcysteine and/or cysteamine and the salts thereof, and mixtures of these keratin-reducing compounds, characterized in that the at least one glyceryl fatty acid ester (b) of general formula is contained in a total amount of 0.1 to 0.8 wt.%, based on the weight of the agent. (a) at least one linear alkan-1-ol or alken-1-ol in each case having 20 to 22 carbon atoms, the at least one alken-1-ol having one to four olefinic double bonds, in a total amount of 1.8 to 10.0 wt.%, based on the weight of the agent, and (b) at least one glyceryl fatty acid ester of general formula, where R1, R2 and R3, independently of one another, represent a hydrogen atom or a group of formula, where R4 represents an unbranched or branched, saturated or unsaturated C 11 -C 27 alkyl group, with the proviso that at least one and at most two of the functional groups selected from R1, R2, and R3 represent a group of formula, and (c) water and (d) at least one keratin-reducing compound, selected from thioglycolic acid and the salts thereof and/or thiolactic acid and the salts thereof and/or cysteine and/or acetylcysteine and/or cysteamine and the salts thereof, and mixtures of these keratin-reducing compounds,
Magnetic proximity sensor, comprising a magnetic sensor element, and a magnet assembly (6, 7) having a first pole surface and a second pole surface, wherein the first pole surface of the magnet assembly (6, 7) is positioned adjacent to a sensor target surface of the magnetic proximity sensor, and the sensor element is positioned at a first distance (t) from the second pole surface of the magnet assembly (6, 7) remote from the sensor target surface, wherein the magnetic assembly (6,7) is disposed between the sensor element and the sensor target surface, and wherein the magnet assembly (6, 7) comprises an axial pole piece with a coaxially positioned magnet body.
A carrying apparatus for carrying an electrode material having a film-shape and a web-shape or an electrode having a film-shape for a battery, the apparatus comprising: a carrier for holding the electrode material or the electrode and then carrying the electrode material or the electrode, the carrier includes holding arms (23, 24, 25, 26) that hold the electrode material or the electrode at an upstream position from a cutting position of the electrode material or the electrode along the carrying direction characterized in that the holding arms (23, 24, 25, 26) hold both side edges of the electrode material or the electrode parallel to the carrying direction, and the holding arms (23, 24, 25, 26) hold the electrode material or the electrode while curving the electrode material or the electrode along a direction intersecting with a carrying direction, such that a forward side portion thereof is not hold. a carrier for holding the electrode material or the electrode and then carrying the electrode material or the electrode, the carrier includes holding arms (23, 24, 25, 26) that hold the electrode material or the electrode at an upstream position from a cutting position of the electrode material or the electrode along the carrying direction characterized in that the holding arms (23, 24, 25, 26) hold both side edges of the electrode material or the electrode parallel to the carrying direction, and the holding arms (23, 24, 25, 26) hold the electrode material or the electrode while curving the electrode material or the electrode along a direction intersecting with a carrying direction, such that a forward side portion thereof is not hold.
A device for cleaning fumes, this device comprising a fume circulation casing inside which there are integrated both a filter having vertical filter bags and a channelled-structure catalyst, the channels of the catalyst having a hydraulic diameter of less than 6 mm, the fumes to be cleaned passing through the filter bags and then the catalyst, wherein, inside the casing, the catalyst is placed above the outlet of the filter bags, and wherein the catalyst is divided into unit elements which are positioned horizontally side by side inside the casing and are vertically removable from the casing, characterized in that the catalyst is separated from the outlet of the filter bags by a vertical distance (d) of between 2.5 and 6 times the hydraulic diameter of the filter bags, and in that the unit elements are positioned side by side inside the casing being arranged successively in several rows in a horizontal direction, each unit element being equipped with moving means for moving the corresponding unit element in said horizontal direction relative to the casing.
A method for managing cognitive load while driving, the method comprising: computing (506, 508) a first cognitive load associated with a first driver based on data received via one or more sensors (232, 234), wherein the first driver and the one or more sensors are associated with a first vehicle; receiving a second cognitive load that is associated with a second driver of a second vehicle; and modifying, based on the first cognitive load and the second cognitive load, a driving task, wherein the step of modifying the driving task comprises modifying one or more parameters of an advanced driver assistance system to increase a conservatism of the advanced driver assistance system. computing (506, 508) a first cognitive load associated with a first driver based on data received via one or more sensors (232, 234), wherein the first driver and the one or more sensors are associated with a first vehicle; receiving a second cognitive load that is associated with a second driver of a second vehicle; and modifying, based on the first cognitive load and the second cognitive load, a driving task, wherein the step of modifying the driving task comprises modifying one or more parameters of an advanced driver assistance system to increase a conservatism of the advanced driver assistance system.
Method of producing an aqueous solution of polymers from solid particles of a water-soluble polymer by combining water and polymer particles in a dispersing apparatus, characterised in that - the dispersing of the particles with the water is performed by applying a first power level/m 3, - after leaving the dispersing apparatus, the water/particle mixture is transferred into a stirring tank where it continues to be dissolved while being stirred, - after a dwell time in the stirring tank, the aqueous solution undergoes a second dispersing operation in a dispersing apparatus at a lower power level/m 3 than in the first dispersing operation. - the dispersing of the particles with the water is performed by applying a first power level/m 3, - after leaving the dispersing apparatus, the water/particle mixture is transferred into a stirring tank where it continues to be dissolved while being stirred, - after a dwell time in the stirring tank, the aqueous solution undergoes a second dispersing operation in a dispersing apparatus at a lower power level/m 3 than in the first dispersing operation.
A pull-out guide in the form of a full-extension mechanism for a pull-out part of a piece of furniture, comprising a guide rail which can be fastened to the body of a piece of furniture, a running rail which can be coupled to a pull-out part, and a central rail which is arranged between the guide rail and the running rail, extending the pull-out length, which is guided in relation to the guide rail and the running rail by means of rolling bodies retained in rolling-body cages, and consists of a profile which is approximately C-shaped in its cross section and which is formed by way of a forming process and whose lateral webs are folded together in form of a roof for forming running surfaces for the rolling bodies, wherein the rolling bodies are designed as rolling-body rollers, characterized in that the respectively free longitudinal edges of one of the formed running surfaces are rigidly welded to the remainder of the profile outside of the running surfaces, so that the profile produced by multiple forming is self-contained.
Composite membrane for separation of material mixtures according to the method of nanofiltration or vapour permeation, comprising at least one carrier layer and at least one material-selective separation layer formed on the carrier layer, characterised in that the material-selective separation layer is produced from a multicomponent mixture, the mixture comprising, as a first component, a polymer with intrinsic microporosity or polymers with a large free volume, selected from the group consisting of poly[1-(trimethylsilyl)-1-propyne] and poly-4-methylpentene and comprising, as at least one second component, polyethylene imine(s) and/or polyethylene glycol(s) and/or polypropylene glycol(s), the second component having reactive end groups for crosslinking the material-selective separation layer, and the material-selective separation layer being crosslinked by chemical crosslinking and/or thermal crosslinking, the proportion of the second component in the mixture being between 5% by weight to 50% by weight.
A container comprising: a tape roll housing section configured to house a tape roll of a wound tape suitable for use with a tape printing device; a removable exit portion removably provided in a first wall section, the removable exit portion to be removed to form a tape exit in the first wall section through which the tape fed from the tape roll may be fed; and a cartridge housing section configured to house a ribbon cartridge having an ink ribbon, the ribbon cartridge suitable to be mounted into the tape printing device such that the ribbon cartridge may be configured to hold the tape fed from the tape roll. a tape roll housing section configured to house a tape roll of a wound tape suitable for use with a tape printing device; a removable exit portion removably provided in a first wall section, the removable exit portion to be removed to form a tape exit in the first wall section through which the tape fed from the tape roll may be fed; and a cartridge housing section configured to house a ribbon cartridge having an ink ribbon, the ribbon cartridge suitable to be mounted into the tape printing device such that the ribbon cartridge may be configured to hold the tape fed from the tape roll.
A method for optimizing at least one operating parameter of an engine component using an experimentally measured 3D flow field comprising: providing a magnetic resonance imaging machine; providing a model of an engine component; placing the model into the magnetic resonance imaging machine with a fluid flow source for applying a fluid flow; applying the fluid flow to the model; collecting data related to the fluid flow about the model; and optimizing at least one operating parameter of the component using the data; characterised in that: the fluid flow is an external fluid flow about the mode, wherein the applying the fluid flow to the model comprises subjecting the model to at least one of a simulated condition of climatic events selected from the group consisting of wind, rain, ice and sand storms. providing a magnetic resonance imaging machine; providing a model of an engine component; placing the model into the magnetic resonance imaging machine with a fluid flow source for applying a fluid flow; applying the fluid flow to the model; collecting data related to the fluid flow about the model; and optimizing at least one operating parameter of the component using the data; characterised in that: the fluid flow is an external fluid flow about the mode, wherein the applying the fluid flow to the model comprises subjecting the model to at least one of a simulated condition of climatic events selected from the group consisting of wind, rain, ice and sand storms. the fluid flow is an external fluid flow about the mode, wherein the applying the fluid flow to the model comprises subjecting the model to at least one of a simulated condition of climatic events selected from the group consisting of wind, rain, ice and sand storms.
An apparatus for the mobility analysis of ions comprising: means for generating a first and second electric field in a volume in a manner so that the first electric field confines ions to a longitudinal axis along at least one direction orthogonal to the said axis and the second electric field is a DC field orthogonal to the longitudinal axis; and a duct forming a gas flow path in the volume, the gas flow having a velocity component orthogonal to the longitudinal axis so that a first force generated on the ions by the DC field counteracts a second force generated on the ions by the orthogonal velocity component of the gas flow. means for generating a first and second electric field in a volume in a manner so that the first electric field confines ions to a longitudinal axis along at least one direction orthogonal to the said axis and the second electric field is a DC field orthogonal to the longitudinal axis; and a duct forming a gas flow path in the volume, the gas flow having a velocity component orthogonal to the longitudinal axis so that a first force generated on the ions by the DC field counteracts a second force generated on the ions by the orthogonal velocity component of the gas flow.
A packaged semiconductor device (100, 200), comprising: an electrically insulating encapsulant comprising opposite facing first and second planar sides (104; 106); a thermally conductive substrate that is partially embedded in the encapsulant such that an outer side of the substrate is exposed at the first side of the encapsulant and an inner side of the substrate is contained within the encapsulant; a lateral GaN based power semiconductor device that is completely embedded in the encapsulant and comprising: a main side comprising electrically conductive device terminals configured as gate, source and drain terminals, and a rear side that faces away from the main side and is mounted on the inner side of the substrate, wherein the rear side provides an electrically inactive surface; and a plurality of electrically conductive leads being partially embedded in the encapsulant and electrically connected to the device terminals, vertical portions of the leads extend away from the substrate towards the second side of the encapsulant, characterized in that the substrate has a thickness below 200nm and an exposed area of the outer side of the substrate above 100mm 2. an electrically insulating encapsulant comprising opposite facing first and second planar sides (104; 106); a thermally conductive substrate that is partially embedded in the encapsulant such that an outer side of the substrate is exposed at the first side of the encapsulant and an inner side of the substrate is contained within the encapsulant; a lateral GaN based power semiconductor device that is completely embedded in the encapsulant and comprising: a main side comprising electrically conductive device terminals configured as gate, source and drain terminals, and a rear side that faces away from the main side and is mounted on the inner side of the substrate, wherein the rear side provides an electrically inactive surface; and a plurality of electrically conductive leads being partially embedded in the encapsulant and electrically connected to the device terminals, vertical portions of the leads extend away from the substrate towards the second side of the encapsulant, characterized in that the substrate has a thickness below 200nm and an exposed area of the outer side of the substrate above 100mm 2.
A nonaqueous electrolyte secondary battery, comprising: a positive electrode that includes a lithium-manganese oxide as a positive electrode active material; a negative electrode that includes SiOx (0≤X<2) in which at least a part of a surface is covered with carbon using a physical vapor deposition method or a chemical vapor deposition method, or a Li-Al alloy as a negative electrode active material; and characterized by: an electrolytic solution, which is a mixed solvent that contains propylene carbonate, ethylene carbonate, and dimethoxy ethane as an organic solvent in a range of {PC:EC:DME}={0.5 to 1.5:0.5 to 1.5:1 to 3} in terms of a volume ratio, and lithium bis(fluorosulfonyl)imide (LiFSI) as a supporting salt in an individual amount of 0.6 to 1.2 (mol/L). a positive electrode that includes a lithium-manganese oxide as a positive electrode active material; a negative electrode that includes SiOx (0≤X<2) in which at least a part of a surface is covered with carbon using a physical vapor deposition method or a chemical vapor deposition method, or a Li-Al alloy as a negative electrode active material; and
An acid ceramidase for use in a method for treating or preventing bacterial infections in a subject having COPD and/or an open wound, said method comprising: selecting a subject having COPD and/or an open wound and administering to said selected subject the acid ceramidase under conditions effective to reduce ceramide and to treat or prevent said bacterial infection in said selected subject. selecting a subject having COPD and/or an open wound and administering to said selected subject the acid ceramidase under conditions effective to reduce ceramide and to treat or prevent said bacterial infection in said selected subject.
A catheter stabilization system comprising: a catheter having a steerable distal end; a stabilizer coupled or coupleable to the catheter at a position that is proximal to the steerable distal end; and wherein the stabilizer is movable radially outward relative to the catheter to stabilize the catheter during flexing of the steerable distal end of the catheter; wherein the stabilizer comprises a shape-set mesh material; and wherein the shape-set mesh material curls back towards the catheter upon being pushed out of the catheter. a catheter having a steerable distal end; a stabilizer coupled or coupleable to the catheter at a position that is proximal to the steerable distal end; and wherein the stabilizer is movable radially outward relative to the catheter to stabilize the catheter during flexing of the steerable distal end of the catheter; wherein the stabilizer comprises a shape-set mesh material; and wherein the shape-set mesh material curls back towards the catheter upon being pushed out of the catheter.
A structural cabinet for an appliance, the structural cabinet comprising: - an outer wrapper and an inner liner defining an insulating cavity therebetween; - a first insulating structural layer disposed against an inner surface of the outer wrapper; - a second insulating structural layer disposed against the inward surface of the inner liner; and - a core insulating material disposed between the first and second insulating structural layers (26, 30), wherein the first and second insulating structural layers (26, 30) reinforce the outer wrapper and inner liner, respectively, and resist deflection when the core insulating material is in a compressed state within the insulating cavity, wherein the first and second insulating structural layers are glass spheres, wherein the first and second insulating structural layers (26, 30) are adhered to the outer wrapper and the inner liner, respectively, wherein the core insulating material is substantially free of engagement with the outer wrapper and the inner liner, wherein the first and second insulating structural layers (26, 30) are each defined by at least one layer of glass spheres, wherein the glass spheres are hollow, wherein the structural cabinet further comprises an adhesive that is disposed between the first insulating structural layer and the inner surface of the outer wrapper and between the second insulating structural layer and the inward surface of the inner liner and wherein the compressed state of the core insulating material is defined by the at least partial vacuum defined within the insulating cavity. - an outer wrapper and an inner liner defining an insulating cavity therebetween; - a first insulating structural layer disposed against an inner surface of the outer wrapper; - a second insulating structural layer disposed against the inward surface of the inner liner; and - a core insulating material disposed between the first and second insulating structural layers (26, 30), wherein the first and second insulating structural layers (26, 30) reinforce the outer wrapper and inner liner, respectively, and resist deflection when the core insulating material is in a compressed state within the insulating cavity, wherein the first and second insulating structural layers are glass spheres, wherein the first and second insulating structural layers (26, 30) are adhered to the outer wrapper and the inner liner, respectively, wherein the core insulating material is substantially free of engagement with the outer wrapper and the inner liner, wherein the first and second insulating structural layers (26, 30) are each defined by at least one layer of glass spheres, wherein the glass spheres are hollow, wherein the structural cabinet further comprises an adhesive that is disposed between the first insulating structural layer and the inner surface of the outer wrapper and between the second insulating structural layer and the inward surface of the inner liner and wherein the compressed state of the core insulating material is defined by the at least partial vacuum defined within the insulating cavity.
A method for producing a strip by butt-welding at least two individual strips (2, 3) along their longitudinal edges, wherein sections of the individual strips are prior to welding deflected in a vertical direction, characterized in that the deflected sections of the strips (2, 3) are guided in the vertical direction past a welding head of at least one welding device and butt-welded thereby.