mhurhangee/ep-ind-claims huggingface dataset:
Hand-held shower comprising - a shower head part and adjoining thereto a handle part, - a jet disc including a plurality of jet outlet openings (4, 5) and being arranged in the shower head part, - at least one water conduit leading to the jet disc in the shower head part, - at least two jet outlet features from the jet disc, and - a switch-over device for switching between the jet outlet features, with the switch-over device being operable by pressure applied to the jet disc, - wherein the jet disc is configured, upon actuation of the switch-over device, to resume its initial position before the actuation of the switch-over device, and - wherein the switch-over device includes a valve element, movably disposed within the shower head, which valve element is configured for switching between different valve conditions corresponding to the jet outlet features upon pressure application to the jet disc, and - wherein the respective pressure application to the jet disc to leave the initial position and return thereto causes one single switch-over operation of the switch-over device, whereby the valve element assumes another valve condition than before the switch-over operation. - a shower head part and adjoining thereto a handle part, - a jet disc including a plurality of jet outlet openings (4, 5) and being arranged in the shower head part, - at least one water conduit leading to the jet disc in the shower head part, - at least two jet outlet features from the jet disc, and - a switch-over device for switching between the jet outlet features, with the switch-over device being operable by pressure applied to the jet disc, - wherein the jet disc is configured, upon actuation of the switch-over device, to resume its initial position before the actuation of the switch-over device, and - wherein the switch-over device includes a valve element, movably disposed within the shower head, which valve element is configured for switching between different valve conditions corresponding to the jet outlet features upon pressure application to the jet disc, and - wherein the respective pressure application to the jet disc to leave the initial position and return thereto causes one single switch-over operation of the switch-over device, whereby the valve element assumes another valve condition than before the switch-over operation.
Device, comprising at least two modular multilevel converters (112, 112'), wherein each of the converters (112, 112') has at least one arm (114, 114'), wherein the arm (114, 114') has a series circuit formed by at least two cells (116, 116', 116", 116"') and one inductance (118, 118'), wherein each cell (116, 116', 116", 116'") comprises a controllable active two-terminal network having at least one energy store and two outputs (122, 122') for providing an electrical voltage, wherein the at least two converters ((112, 112') are coupled to one another in such a way that in each case at least one of the at least one inductance (118, 118') from the at least one arm (114, 114') of each of the at least two converters (112, 112') is applied to a common magnetic core, characterized in that the inductances (118, 118') applied on the common magnetic core are selected and applied on the common magnetic core in such a way that output currents of the at least two converters (112, 112') do not give rise to a resulting magnetic field.
Frame formwork element with a frame and a formwork shell which can be attached to the frame, wherein the frame has at least two frame longitudinal parts and at least two frame transverse parts, and wherein at least one transverse bracing is fixed between the frame longitudinal parts, said transverse bracing having two transverse braces which run parallel to each other in a mutually spaced manner and between which a through-gap is formed for passing through anchor rods, characterized in that at least one guide device according to one of claims 8 or 9 for forming an anchor point is inserted into the through-gap, wherein the guide device is secured to the transverse bracing by means of the securing region, wherein the seal receptacle is positioned in such a way that the seal seals the guide device relative to an anchor bore in the formwork shell.
An air conditioner comprising a compressor, a condenser (20, 30), an expansion device (28, 38), an evaporator (20, 30), and a supercooling device configured to supercool a refrigerant passing through the condenser (20, 30) and comprising a supercooling main body in which the refrigerant passing through the condenser (20, 30) and a refrigerant to be injected into the compressor are introduced, characterized in that the supercooling device further comprises: a first passage disposed within the supercooling main body, the first passage including a plurality of branch tubes (131a, 131b) in which the refrigerant passing through the condenser (20, 30) flows in one direction; a second passage disposed on a side of the first passage and in which the refrigerant passing through the first passage flows in the other direction, the refrigerant discharged from the plurality of branch tubes (131a, 131b) being combined and introduced into the second passage; and a third passage in which the refrigerant to be injected into the compressor flows, the third passage being heat-exchanged with at least one of the first and second passages, and wherein the one direction is opposite to the other direction. a first passage disposed within the supercooling main body, the first passage including a plurality of branch tubes (131a, 131b) in which the refrigerant passing through the condenser (20, 30) flows in one direction; a second passage disposed on a side of the first passage and in which the refrigerant passing through the first passage flows in the other direction, the refrigerant discharged from the plurality of branch tubes (131a, 131b) being combined and introduced into the second passage; and a third passage in which the refrigerant to be injected into the compressor flows, the third passage being heat-exchanged with at least one of the first and second passages, and wherein the one direction is opposite to the other direction.
A kit comprising: a placebo challenge meal formulation comprising no food allergen; and a high-dose, non-placebo challenge meal formulation comprising allergen, wherein the allergen is present in the challenge meal formulation in an amount of more than 10% w/w and less than 25% w/w; wherein the placebo challenge meal formulation comprises an additive present in an amount of from 0.05% w/w to 1.5% w/w of the oral food challenge meal formulation, wherein the additive is selected from the group consisting of: maltodextrin, dextrin, cyclodextrin and combinations thereof; wherein the high-dose, non-placebo challenge meal formulation includes 0% w/w of the additive; wherein the allergen component is selected from the group consisting of: peanut, soy, egg, sesame seeds, milk, fish, crustaceans, almond, cashew, hazelnut, pistachio, walnut, sulphites, wheat, mustard and celery allergen. a placebo challenge meal formulation comprising no food allergen; and a high-dose, non-placebo challenge meal formulation comprising allergen, wherein the allergen is present in the challenge meal formulation in an amount of more than 10% w/w and less than 25% w/w; wherein the placebo challenge meal formulation comprises an additive present in an amount of from 0.05% w/w to 1.5% w/w of the oral food challenge meal formulation, wherein the additive is selected from the group consisting of: maltodextrin, dextrin, cyclodextrin and combinations thereof; wherein the high-dose, non-placebo challenge meal formulation includes 0% w/w of the additive; wherein the allergen component is selected from the group consisting of: peanut, soy, egg, sesame seeds, milk, fish, crustaceans, almond, cashew, hazelnut, pistachio, walnut, sulphites, wheat, mustard and celery allergen.
A coating composition for a drug-eluting medical device, containing a water-insoluble drug and at least one selected from the group consisting of ester compounds of amino acids, and salts thereof, wherein the ester compound is an ester compound of at least one amino acid and a monohydric alcohol of up to five carbon atoms, the at least one amino acid being selected from the group consisting of glycine, serine, asparagine, aspartic acid, glutamine, glutamic acid, arginine, threonine, histidine, lysine, tyrosine, tryptophan, amino acids obtained by replacing at least one of hydrogen atoms of an amino group at α-position in the above-mentioned amino acids with an alkyl group of up to five carbon atoms, a benzyl group or a benzoyl group, proline and amino acids obtained by replacing a hydrogen atom of an imino group of proline with an alkyl group of up to five carbon atoms, a benzyl group or a benzoyl group, and wherein the water-insoluble drug is at least one selected from the group consisting of paclitaxel, rapamycin, docetaxel and everolimus.
U-tank active roll dampening system for vessel, wherein the U-tank is formed by side tanks (11a-b), one arranged at port side of the vessel and one arranged at starboard side of the vessel, the side tanks (11a-b) at upper end sealed and at lower end connected by a crossover duct, wherein the U-tank is partly filled with a fluid, the system comprising a motion reference unit measuring accelerations of the vessel roll motion and a control unit, characterized in that at least one vacuum and air pressure manipulation unit is arranged to upper part of an associated side tank (11a-b) and at least one aeration device against open air is connected to upper part of the other side tank (11a-b), wherein the at least one vacuum and air pressure manipulation unit is arranged to supply air pressure or vacuum on the fluid surface in the associated side tank, wherein the control unit is provided with means and/or software for controlling the at least one vacuum and air pressure manipulation unit to control fluid level in both side tanks (11a-b) in anti-phase in front/advance of vessel roll motion period by predicting and calculating the fluid level in the respective side tanks (11a-b) in anti-phase in front/advance of vessel roll motion period based on measurements of the motion reference unit.
A stratified scavenging two-stroke engine comprising: a piston; a cylinder that houses the piston in a manner allowing reciprocation; a crankshaft that is connected to the piston via a connecting rod; a crankcase that houses the crankshaft in a manner allowing rotation; a mixture gas passage that introduces mixture gas into the crankcase; a scavenging passage that extends between a scavenging intake that opens into the crankcase and a scavenging port that opens into the cylinder; and an air passage characterized in that the air passage is connected to an intermediate position of the scavenging passage, wherein, with respect to an axial direction of the cylinder, the intermediate position of the scavenging passage where the air passage is connected is located lower than a height level of the mixture gas passage. a piston; a cylinder that houses the piston in a manner allowing reciprocation; a crankshaft that is connected to the piston via a connecting rod; a crankcase that houses the crankshaft in a manner allowing rotation; a mixture gas passage that introduces mixture gas into the crankcase; a scavenging passage that extends between a scavenging intake that opens into the crankcase and a scavenging port that opens into the cylinder; and an air passage characterized in that the air passage is connected to an intermediate position of the scavenging passage, wherein, with respect to an axial direction of the cylinder, the intermediate position of the scavenging passage where the air passage is connected is located lower than a height level of the mixture gas passage.
Method for personalizing a first secure element embedded in a first terminal, said first secure element being an embedded Universal Integrated Circuit Card, said method comprising: - Providing the user of said first terminal with a second secure element not embedded in any telecommunication terminal, wherein said second secure element contains an application; - Linking said first and second secure elements in or through said first terminal; and - Personalizing securely said first secure element with data comprised in said second secure element comprising transferring said application contained in said second secure element to said first secure element, security being based on certificate verification and asymmetric encryption between said secure elements. - Providing the user of said first terminal with a second secure element not embedded in any telecommunication terminal, wherein said second secure element contains an application; - Linking said first and second secure elements in or through said first terminal; and - Personalizing securely said first secure element with data comprised in said second secure element comprising transferring said application contained in said second secure element to said first secure element, security being based on certificate verification and asymmetric encryption between said secure elements.
An oral care composition comprising: i) a source of a fluoride ion; ii) a source of a phosphate ion; iii) stabilised chlorine dioxide for removing plaque and biofilm from a tooth surface; and (iv) a buffer system; (v) wherein the pH of the composition is between 6.0 and 8.0; characterised by a source of a calcium ion, and in that the source of a calcium ion and the source of a phosphate ion comprises a particulate nano-crystalline apatite in which the crystallites which make up each apatite particle have a size of less than 100 nm, and wherein the source of fluoride ion is selected from: disodium monofluorophosphate, dipotassium fluorophosphate, calcium fluorophosphate, ammonium fluorophosphate, or any combination of two or more thereof. i) a source of a fluoride ion; ii) a source of a phosphate ion; iii) stabilised chlorine dioxide for removing plaque and biofilm from a tooth surface; and (iv) a buffer system; (v) wherein the pH of the composition is between 6.0 and 8.0;
Screw nut comprising - a through hole, - an internal thread that projects into the through hole, - a first face that surrounds the through hole, and - at least one first barcode pattern (31, 32, 33) that is located on the first face, characterized in that the screw nut comprises at least three first barcode patterns (31, 32, 33) that are located on the first face, wherein the first barcode patterns (31, 32, 33) have identical content. - a through hole, - an internal thread that projects into the through hole, - a first face that surrounds the through hole, and - at least one first barcode pattern (31, 32, 33) that is located on the first face,
Method for the determination of transmission and/or clutch parameters of an automatic transmission, which has at least one clutch, of a motor vehicle for the basic calibration of the automatic transmission, in particular of an automated manual transmission and/or a double clutch transmission, a drag torque, or a drag torque and the kiss point of the clutch, being determined with the aid of at least one actuable synchronization apparatus of a gear stage of the transmission, the clutch having at least one drive side which can be operatively connected and/or is operatively connected to an internal combustion engine output shaft and at least one output side which is operatively connected to at least one transmission input shaft, a transmission output shaft and/or a drive shaft/drive shafts of the transmission being blocked, the drive side of the clutch being driven, the drive side of the clutch being driven with the aid of an electric motor, there being at least one freewheel-shifted gear stage (Gl), and the drive side of the clutch being driven by the electric motor in a rotational direction which is reversed with respect to the rotational direction of the internal combustion engine output shaft, characterized in that, in a first step at a first time (t 1), the clutch is closed by way of a defined clutch force and a defined clutch torque (M Kup) is realized, in that the rotational speed (n fW) of the transmission input shaft is increased in terms of magnitude afterwards to the rotational speed (n mot) of the drive side of the clutch and/or, at a second time (t 2), the rotational speed (n fW) of the transmission input shaft reaches substantially the rotational speed of the drive side of the clutch, in particular with the retention of a minimum slip and/or a stationary differential rotational speed, in that, in a second step at a third time (t 3), the synchronization apparatus is actuated, namely a synchronization operation of the said gear stage of the transmission is started with the aid of the synchronization apparatus, and the synchronization apparatus is loaded with a synchronization force which, in particular, rises continuously, and in that, in the case of a defined first synchronization force which is then determined at a fourth time (t 4), the rotational speed (n fW) of the transmission input shaft breaks off from the rotational speed (n mot) of the drive shaft of the clutch, and the drag torque of the clutch can then be determined and/or calculated as a result.
An occlusive device for medical treatment of a lumen, comprising: a three-dimensional structure formed from a plurality of braided wires and being selectively detachable from a delivery device comprising a delivery pusher and a catheter; wherein the three-dimensional structure is configured to have a linear compressed shape within the delivery device, and wherein the three-dimensional structure is configured to have an expanded state that expands away from an axis of a distal end of the delivery device in a longitudinally angled and an axially offset manner when not contained within the delivery device; wherein the occlusive device comprises a tether connected at a distal end of the three-dimensional structure; characterised in that the tether is connected at a proximal end of the three-dimensional structure, the tether being configured to maintain tension on one side of the three-dimensional structure during its expansion and to allow full expansion on the opposite side so as to cause the three-dimensional structure to curve in the direction of the tether. a three-dimensional structure formed from a plurality of braided wires and being selectively detachable from a delivery device comprising a delivery pusher and a catheter; wherein the three-dimensional structure is configured to have a linear compressed shape within the delivery device, and wherein the three-dimensional structure is configured to have an expanded state that expands away from an axis of a distal end of the delivery device in a longitudinally angled and an axially offset manner when not contained within the delivery device; wherein the occlusive device comprises a tether connected at a distal end of the three-dimensional structure; characterised in that the tether is connected at a proximal end of the three-dimensional structure, the tether being configured to maintain tension on one side of the three-dimensional structure during its expansion and to allow full expansion on the opposite side so as to cause the three-dimensional structure to curve in the direction of the tether.
A component system for hardening mold material mixtures comprising spatially separate from each other at least: - a polyol component, wherein the polyol component comprises a phenolic resin of the benzyl ether type and a solvent; - an isocyanate component being one or more isocyanate compounds having at least 2 isocyanate groups per molecule; wherein the phenolic resin of the benzyl ether type comprises at least one aliphatic hydrocarbon group-substituted phenol as a monomer building block that is substituted on the aromatic ring with an aliphatic hydrocarbon group having 11 to 26 hydrocarbon atoms and 0 to 4 double bonds, and the portion of the hydrocarbon group-substituted phenol in the phenolic resin is 0.5 to 20% by weight; characterized in that the polyol component comprises a solvent which is at least 95% by weight a nonpolar solvent and the nonpolar solvent is selected from hydrocarbons, alkyl/alkoxy silanes, alkyl/alkoxy siloxanes and their mixtures, and the phenolic resin of the benzyl ether type is dissolved in the solvent. - a polyol component, wherein the polyol component comprises a phenolic resin of the benzyl ether type and a solvent; - an isocyanate component being one or more isocyanate compounds having at least 2 isocyanate groups per molecule;
A hot deformed magnet having an alloy composition of the formula RE x Fe (100-x-y1-y2-z1-z2) T y1 M y2 Cu z1 B z2, wherein RE is one or more rare earth elements, such as La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Yb, and Lu, preferably Pr, Nd, Tb, and Dy; T is one or more elements selected from the group consisting of Co, Al, Ga, Zr, Ti and Mo; M is Nb and/or Ta; Cu is copper; B is boron; the balance is Fe and inevitable impurities; x is 13.0 ∼ 15.0 at.%; y1 is 1.2 ∼ 10.0 at.%; y2 is 0.1 ∼ 0.8 at.%; z1 is 0 ∼ 0.5 at.%; and z2 is 4.5 ∼ 6.5 at.%. RE is one or more rare earth elements, such as La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Yb, and Lu, preferably Pr, Nd, Tb, and Dy; T is one or more elements selected from the group consisting of Co, Al, Ga, Zr, Ti and Mo; M is Nb and/or Ta; Cu is copper; B is boron; the balance is Fe and inevitable impurities; x is 13.0 ∼ 15.0 at.%; y1 is 1.2 ∼ 10.0 at.%; y2 is 0.1 ∼ 0.8 at.%; z1 is 0 ∼ 0.5 at.%; and z2 is 4.5 ∼ 6.5 at.%.
A microfluidic device (101,201,301) comprising: one or more cams (102,202,302) comprising a cam shaft (103,203,303) and a cam lobe (104,204,304); one or more rocker arms (109,209,309); a microfluidic cartridge (105,205,305) comprising one or more fluidic channels (208,308), one or more reaction chambers (107,207,307), and one or more burst pouches (106,206,306) comprising fluid and a frangible membrane seal; and a cam mechanism configured to rotate the cam shaft (103,203,303); wherein the one or more cams (102,202,302) are configured such that rotation of the cam shaft (103,203,303) causes the cam lobes (104,204,304) to actuate the one or more rocker arms (109,209,309), and wherein the one or more rocker arms (109,209,309) are configured such that actuation causes the one or more rocker arms (109,209,309) to move from an open position to a closed position in which pressure is placed on the one or more burst pouches (106,206,306) such that the frangible membrane is broken and the fluid is released into the one or more reaction chambers (107,207,307), characterized in that the one or more cam lobes (104,204,304) and the one or more rocker arms (109,209,309) are configured such that after the frangible membrane seal of the one or more burst pouches (106,206,306) has been broken, the rocker arms (109,209,309) remain in the closed position. one or more cams (102,202,302) comprising a cam shaft (103,203,303) and a cam lobe (104,204,304); one or more rocker arms (109,209,309); a microfluidic cartridge (105,205,305) comprising one or more fluidic channels (208,308), one or more reaction chambers (107,207,307), and one or more burst pouches (106,206,306) comprising fluid and a frangible membrane seal; and a cam mechanism configured to rotate the cam shaft (103,203,303);