mhurhangee/ep-ind-claims huggingface dataset:
A reactive sol containing a liquid phase and nanoscale particles with functional groups, characterized in that the particles have a maximum size distribution of < 50 nm and a particle contains at least one monomer and/or at least one oligomer with 2 to 15 repeating structural units, wherein the monomer and/or the oligomer is an adduct E from a compound A, selected from one of the groups of diisocyanates, dicarbonic acids, diepoxides and phenols with at least two A-end groups and a compound D, selected from one of the groups of diols, triols, diamines, triamines, polyamines, aldehydes or mixtures of these compounds with at least two D-end groups, and the liquid phase contains a compound B acting as an intercalating agent selected from one of the groups of diols, triols, polyols, diamines, triamines, polyamines, amino-alcohols and aldehydes having at least two B-end groups, wherein the A-end groups are carboxyl, epoxy, isocyanate, phenol groups, the B-end groups are hydroxyl, amino, aldehyde groups and the D-end groups are hydroxyl, amino, aldehyde groups.
A railway vehicle steering truck adapted to steer a wheel axle of the truck, the steering truck comprising a wheel tread surface cleaning system comprising: a cleaning element mounted to a truck frame of the steering truck in a position facing a wheel tread surface, the cleaning element moving freely to come into contact with and to move away from the wheel tread surface, characterised by a pressing-load application spring which presses on the cleaning element biased toward the wheel tread surface, and a stopper for restraining the cleaning element from approaching the wheel tread surface, so that by utilizing a forward and backward movement of the wheel axle in the travel direction caused by steering, the cleaning element does not make contact on the outer rail side from which the wheel tread surface moves away when passing through a curved section and when traveling through a straight section. a cleaning element mounted to a truck frame of the steering truck in a position facing a wheel tread surface, the cleaning element moving freely to come into contact with and to move away from the wheel tread surface,
Compositions essentially containing from 5 to 65% by weight, preferably from 5 to 15% by weight, of 2,3,3,3-tetrafluoropropene, from 5 to 70% by weight, preferably from 40 to 60% by weight, of HFC-134a and from 25 to 42% by weight of HFC-32.
A system for regulating the maximum speed of an agricultural tractor having wheels (11, 12) fitted with tyres and driven from an engine via a driveline (14, 15, 16) with a total overall gear ratio, the agricultural tractor arranged for use with different tyres having different tyre circumferences, the tractor having a preset maximum tyre circumference allowed for the tyres of the tractor, the system including a means for determining the actual vehicle speed of the tractor without using a calculation based on engine speed, and a control unit which adjusts the engine speed and/or overall driveline gear ratio taking into account the diameter of the tyres fitted to the wheels (11, 12) so that the maximum speed which the tractor can attain remains substantially constant at a predetermined value irrespective of the diameter of the tyres fitted to the wheels, characterised in that, in the event of the failure of the vehicle speed determining means the control unit assumes that tyres (11,12) having a circumference corresponding to the preset maximum tyre circumference are fitted to the tractor.
A tissue ablation probe, comprising: an elongated probe shaft having a proximal end and a distal end; at least one fluid perfusion lumen longitudinally extending through the probe shaft; a plurality of electrodes carried by the distal end of the probe shaft in a side-by-side arrangement, each of the electrodes including a porous structure in fluid communication with the at least one fluid perfusion lumen, each of the electrodes having a distal-facing surface characterised in that the distal-facing surfaces of the electrodes together form a continuous surface, the continuous surface being configured to conform to a surface of tissue to be subjected to the tissue ablation probe; wherein the continuous surface is tapered with respect to a longitudinal axis of the probe shaft; and wherein the porous structure of each of the electrodes is composed of an electrically conductive material. an elongated probe shaft having a proximal end and a distal end; at least one fluid perfusion lumen longitudinally extending through the probe shaft; a plurality of electrodes carried by the distal end of the probe shaft in a side-by-side arrangement, each of the electrodes including a porous structure in fluid communication with the at least one fluid perfusion lumen, each of the electrodes having a distal-facing surface characterised in that the distal-facing surfaces of the electrodes together form a continuous surface, the continuous surface being configured to conform to a surface of tissue to be subjected to the tissue ablation probe; wherein the continuous surface is tapered with respect to a longitudinal axis of the probe shaft; and wherein the porous structure of each of the electrodes is composed of an electrically conductive material.
A manufacturing method for a metal plate used for manufacturing a deposition mask having a plurality of through-holes formed therein, the method comprising a preparation step of preparing a plate member made of an iron alloy containing 30 to 54% by mass of nickel, wherein the preparation step includes a rolling step of rolling a base metal made of an iron alloy containing nickel, or wherein the preparation step includes a foil creating step of creating a plating film by using a plating liquid including a solution containing a nickel compound and a solution containing an iron compound, further comprising an annealing step of annealing the plate member to obtain the metal plate, wherein the annealing step is performed in an inert gas atmosphere where the inert gas exists 90% or more, and comprising a severing step of severing both ends of the metal plate in the width direction thereof over a predetermined range, wherein a thickness of the metal plate is 85 μm or less, and wherein: when a composition analysis of a first surface of the metal plate obtained from the plate member is performed by using an X-ray photoelectron spectroscopy, a ratio A1/A2 obtained by the result of the X-ray photoelectron spectroscopy is 0.4 or less, where A1 is a sum of a peak planar dimension value of nickel oxide and a peak planar dimension value of nickel hydroxide, and A2 is a sum of a peak planar dimension value of iron oxide and a peak planar dimension value of iron hydroxide; and in the composition analysis of the first surface of the metal plate by means of the X-ray photoelectron spectroscopy, an incident angle of an X-ray emitted to the metal plate on the first surface is 45 degrees, and an acceptance angle of photoelectrons discharged from the metal plate is 90 degrees, wherein the method for calculating the ratio A1/A2 based on the analysis result by means of the XPS method is performed as specified in the description; and wherein calculating the background line is performed by using the Shirley method as specified in the description. when a composition analysis of a first surface of the metal plate obtained from the plate member is performed by using an X-ray photoelectron spectroscopy, a ratio A1/A2 obtained by the result of the X-ray photoelectron spectroscopy is 0.4 or less, where A1 is a sum of a peak planar dimension value of nickel oxide and a peak planar dimension value of nickel hydroxide, and A2 is a sum of a peak planar dimension value of iron oxide and a peak planar dimension value of iron hydroxide; and in the composition analysis of the first surface of the metal plate by means of the X-ray photoelectron spectroscopy, an incident angle of an X-ray emitted to the metal plate on the first surface is 45 degrees, and an acceptance angle of photoelectrons discharged from the metal plate is 90 degrees, wherein the method for calculating the ratio A1/A2 based on the analysis result by means of the XPS method is performed as specified in the description; and wherein calculating the background line is performed by using the Shirley method as specified in the description.
A controlled evacuation ostomy appliance, the controlled evacuation ostomy appliance has: (a) a pouch including a first wall and a second wall, the first wall including a first aperture for receiving a stoma; (b) a first coupling element attached to the first wall; characterised in that (c) a stoma seal is located at the first aperture and coupled to the second wall; (d) a stoma seal support is coupled to the second wall for supporting the stoma seal at the first aperture, the stoma seal support further comprising a second coupling element. (a) a pouch including a first wall and a second wall, the first wall including a first aperture for receiving a stoma; (b) a first coupling element attached to the first wall; characterised in that (c) a stoma seal is located at the first aperture and coupled to the second wall; (d) a stoma seal support is coupled to the second wall for supporting the stoma seal at the first aperture, the stoma seal support further comprising a second coupling element.
A method performed by a second multi-link device, MLD, in a wireless local area network, WLAN, system, the method comprising: receiving a multi-link, ML, element from a first MLD through a first link; and decoding the ML element, wherein the first MLD includes a first access point operating on the first link and a second AP operating on a second link, wherein the ML element includes common information and link information, wherein the common information includes an MLD Beacon Interval Present subfield, and wherein a beacon interval of the second AP is included in the link information based on the MLD Beacon Interval Present subfield. receiving a multi-link, ML, element from a first MLD through a first link; and decoding the ML element, wherein the first MLD includes a first access point operating on the first link and a second AP operating on a second link, wherein the ML element includes common information and link information, wherein the common information includes an MLD Beacon Interval Present subfield, and wherein a beacon interval of the second AP is included in the link information based on the MLD Beacon Interval Present subfield.
A cosmetic aerosol composition for keratin fibers, preferably human keratin fibers, more preferably for human hair, characterized in that it comprises: • One or more organopolysiloxane graft polymer(s), • One or more pigment(s), • One or more cosmetically acceptable organic solvent(s) with a boiling point in the range of more than 50°C to 120°C under atmospheric conditions, • One or more propellant(s) at a total concentration of at least 50% by weight, calculated to the total of the composition, wherein the composition comprises less than 5% by weight of water, calculated to the total of the composition, preferably it is anhydrous. • One or more organopolysiloxane graft polymer(s), • One or more pigment(s), • One or more cosmetically acceptable organic solvent(s) with a boiling point in the range of more than 50°C to 120°C under atmospheric conditions, • One or more propellant(s) at a total concentration of at least 50% by weight, calculated to the total of the composition,
Uniplanar bone anchoring element, comprising an anchoring screw with a bone thread and a screw head, wherein the screw head is flattened on at least one side; a receiving element, wherein the receiving element has a through-bore which tapers in a lower region and in which the anchoring screw can be received, and two limbs (25, 26) which extend upwards and have a threaded profile in an upper region, which is designed for screwing on a securing screw, wherein the receiving element has an inner groove which runs at least partly in the circumferential direction in the seat region of the anchoring screw head; and a bearing element for inserting into the inner groove of the receiving element, wherein the bearing element is partly flattened on at least one side; characterized in that the groove and the bearing element are designed in a complementary manner such that the bearing element is positioned in the groove in a predetermined position and the bearing element is designed U-shaped with two substantially parallel limbs. an anchoring screw with a bone thread and a screw head, wherein the screw head is flattened on at least one side; a receiving element, wherein the receiving element has a through-bore which tapers in a lower region and in which the anchoring screw can be received, and two limbs (25, 26) which extend upwards and have a threaded profile in an upper region, which is designed for screwing on a securing screw, wherein the receiving element has an inner groove which runs at least partly in the circumferential direction in the seat region of the anchoring screw head; and a bearing element for inserting into the inner groove of the receiving element, wherein the bearing element is partly flattened on at least one side;
A kit of parts for forming a keg assembly, the kit comprising a keg or a preform for forming a keg, and a bottom chime configured to be mounted to the keg; wherein the bottom chime is configured to be push fitted onto the keg and comprises at least one projection that extends in a radially inward direction and is configured to engage a corresponding at least one recess provided on the body of the keg that extends inwardly with respect to an underlying contour of the keg to thereby retain the bottom chime with respect to the keg and characterised in that the bottom chime comprises a plurality of resiliently deformable support elements that are configured to engage a base portion of the keg and to support at least a portion of the weight of the keg when the bottom chime has been mounted to the keg.
A process for producing isocyanatoorganosilane having low color and color stability comprising: (a) reacting aminoorganosilane with organic carbonate, ester in the presence of basic catalyst to form a reaction mixture containing silylorganocarbamate; (b) neutralizing the reaction mixture of step (a) with an acid to a pH value equal to or greater than 6.0; (c) stripping the neutralized reaction mixture resulting from step (b) at a temperature of from 80°C to 130°C so as to provide less than 5.0 weight percent organic carbonate ester based on the total weight of the stripped reaction mixture; (d) filtering the stripped reaction mixture resulting from step (c); (e) optionally adding an acid to adjust the pH of the filtered reaction mixture resulting from step (d) to a value equal to or greater than 6.0; (f) thermally cracking the stripped reaction mixture containing silylorganocarbamate resulting from step (d) or step (e) to provide for an isocyanatoorganosilane and thermally cracked reaction byproducts; (g) separating isocyanatoorganosilane from the thermally cracked reaction byproducts produced in step (f); and (h) collecting the isocyanatoorganosilane from step (g) to provide for isocyanatoorganosilane having low color and color stability. (a) reacting aminoorganosilane with organic carbonate, ester in the presence of basic catalyst to form a reaction mixture containing silylorganocarbamate; (b) neutralizing the reaction mixture of step (a) with an acid to a pH value equal to or greater than 6.0; (c) stripping the neutralized reaction mixture resulting from step (b) at a temperature of from 80°C to 130°C so as to provide less than 5.0 weight percent organic carbonate ester based on the total weight of the stripped reaction mixture; (d) filtering the stripped reaction mixture resulting from step (c); (e) optionally adding an acid to adjust the pH of the filtered reaction mixture resulting from step (d) to a value equal to or greater than 6.0; (f) thermally cracking the stripped reaction mixture containing silylorganocarbamate resulting from step (d) or step (e) to provide for an isocyanatoorganosilane and thermally cracked reaction byproducts; (g) separating isocyanatoorganosilane from the thermally cracked reaction byproducts produced in step (f); and (h) collecting the isocyanatoorganosilane from step (g) to provide for isocyanatoorganosilane having low color and color stability.
A titanium alloy having a titanium base with added amounts of aluminum as alpha stabilizer, at least one isomorphous beta stabilizing element, at least one eutectoid beta stabilizing element, and incidental impurities, wherein the titanium alloy comprises: aluminum (Al) as alpha stabilizer in an amount ranging between 0.5 wt.% to 1.6 wt.% or Al being replaced, either entirely or in part, by equivalent amounts of another alpha stabilizer selected from Zirconium (Zr), Tin (Sn), and Oxygen, or any combination thereof; wherein the Al substitutions using alpha stabilizers are determined by the following Al Equivalence Equation: Al Equivalent % = Al + Zr / 6 + Sn / 3 + 10 * O vanadium as an isomorphous beta stabilizing element in an amount ranging between 2.5 wt.% to 5.3 wt.% or V being replaced, either entirely or in part, by equivalent amounts of another isomorphous beta stabilizing element selected from Molybdenum (Mo) and Niobium (Nb), or any combination thereof; wherein the V substitutions using isomorphous beta stabilizing elements are determined by the following V Equivalence Equation: V Equivalent % = V + 3 Mo / 2 + Nb / 2 + 9 Fe + Cr / 2 silicon (Si) in an amount ranging between 0.1 wt.% to 0.5 wt.% or Si being replaced, either entirely or in part, by Germanium (Ge); iron (Fe) as an eutectoid beta stabilizing element in an amount ranging between 0.05 wt.% to 0.5 wt.%; oxygen in an amount ranging between 0.1 wt.% to 0.25 wt.%; carbon in an amount up to 0.2 wt.%; and the remainder being titanium and incidental impurities. aluminum (Al) as alpha stabilizer in an amount ranging between 0.5 wt.% to 1.6 wt.% or Al being replaced, either entirely or in part, by equivalent amounts of another alpha stabilizer selected from Zirconium (Zr), Tin (Sn), and Oxygen, or any combination thereof; wherein the Al substitutions using alpha stabilizers are determined by the following Al Equivalence Equation: Al Equivalent % = Al + Zr / 6 + Sn / 3 + 10 * O vanadium as an isomorphous beta stabilizing element in an amount ranging between 2.5 wt.% to 5.3 wt.% or V being replaced, either entirely or in part, by equivalent amounts of another isomorphous beta stabilizing element selected from Molybdenum (Mo) and Niobium (Nb), or any combination thereof; wherein the V substitutions using isomorphous beta stabilizing elements are determined by the following V Equivalence Equation: V Equivalent % = V + 3 Mo / 2 + Nb / 2 + 9 Fe + Cr / 2 silicon (Si) in an amount ranging between 0.1 wt.% to 0.5 wt.% or Si being replaced, either entirely or in part, by Germanium (Ge); iron (Fe) as an eutectoid beta stabilizing element in an amount ranging between 0.05 wt.% to 0.5 wt.%; oxygen in an amount ranging between 0.1 wt.% to 0.25 wt.%; carbon in an amount up to 0.2 wt.%; and the remainder being titanium and incidental impurities.
A dip tube insertion member for facilitating insertion of a dip tube into a liquid container having a sealing cap without removing the sealing cap from the liquid container, said dip tube insertion member comprising: a dip tube insertion cap having an upper wall, an outer annular wall and a probe, the probe having a hollow cavity for receiving a dip tube, the probe further including an upper opening and a lower opening for facilitating insertion of a dip tube into the liquid container; wherein the dip tube insertion cap further includes: a sealing member for forming an air chamber surrounding the probe, the air chamber being configured to receive and direct air to at least one air passageway communicating with an interior of the liquid container; characterized in that, the sealing member forms an air chamber between an inner surface of the upper wall and an upper exterior surface of the sealing cap, and extends inwardly from the sealing member and completely surrounds the probe; the upper wall extends horizontally and includes the inner surface and an outer surface, the cap being configured such that, when the dip tube insertion member is installed, the sealing member, which extends downwardly from the inner surface of the upper wall and completely surrounds the probe, engages the uppermost surface of the liquid storage container sealing cap, which forms a bottom of said air chamber to form the air chamber. a dip tube insertion cap having an upper wall, an outer annular wall and a probe, the probe having a hollow cavity for receiving a dip tube, the probe further including an upper opening and a lower opening for facilitating insertion of a dip tube into the liquid container; wherein the dip tube insertion cap further includes: a sealing member for forming an air chamber surrounding the probe, the air chamber being configured to receive and direct air to at least one air passageway communicating with an interior of the liquid container; characterized in that, the sealing member forms an air chamber between an inner surface of the upper wall and an upper exterior surface of the sealing cap, and extends inwardly from the sealing member and completely surrounds the probe; the upper wall extends horizontally and includes the inner surface and an outer surface, the cap being configured such that, when the dip tube insertion member is installed, the sealing member, which extends downwardly from the inner surface of the upper wall and completely surrounds the probe, engages the uppermost surface of the liquid storage container sealing cap, which forms a bottom of said air chamber to form the air chamber.
A drive assembly for a Venetian blind, comprising at least one drive motor, at least one lifting mechanism which is suitable for operating at least one lifting band, at least one turning mechanism (5") which is suitable for adjusting the angle of inclination of the slats which are connected to one another by means of turning bands, as well as a suspension or storage system for the at least one lifting mechanism and for the at least one turning mechanism (5"), characterized in that in each case a lifting mechanism and a turning mechanism (5") form one unit as a turning and lifting device, that an individual drive motor is assigned to each turning and lifting device and that each turning and lifting device together with the assigned drive motor are in each case located in a common housing.