mhurhangee/ep-ind-claims huggingface dataset:
An aqueous magnesium hydroxide suspension comprising: a) at least 40 wt.%, advantageously at least 50 wt.%, more preferably at least 53 wt.%, relative to the total weight of the suspension, of magnesium hydroxide particles; b) from 0.001 to 5 wt.%, advantageously from 0.01 to 4 wt.%, more advantageously from 0.1 to 3 wt.%, relative to the total weight of the magnesium hydroxide, of at least one dispersant, advantageously selected from the group consisting of homopolymers or copolymers of acrylic acid or methacrylic acid and their salts and a mixture thereof and lignosulfonates and mixtures thereof, in particular selected from polycarboxylates, polyether polycarboxylates, polyacrylates, polyacrylate copolymers, acrylic and/or methacrylic copolymers, salts and a mixture thereof, and c) from 0.001 to 5 wt.%, advantageously from 0.005 to 1 wt.%, more advantageously from 0.01 to 0.5 wt.%, relative to the total weight of the suspension, of at least one anti-foaming agent, advantageously selected from the group consisting of organic oils, polyglycols, fatty acid esters or polyesters and mixtures thereof, said oils or polyglycols possibly containing organic or mineral particles in suspension characterized in that the at least one anti-foaming agent does not comprise silicone oil. a) at least 40 wt.%, advantageously at least 50 wt.%, more preferably at least 53 wt.%, relative to the total weight of the suspension, of magnesium hydroxide particles; b) from 0.001 to 5 wt.%, advantageously from 0.01 to 4 wt.%, more advantageously from 0.1 to 3 wt.%, relative to the total weight of the magnesium hydroxide, of at least one dispersant, advantageously selected from the group consisting of homopolymers or copolymers of acrylic acid or methacrylic acid and their salts and a mixture thereof and lignosulfonates and mixtures thereof, in particular selected from polycarboxylates, polyether polycarboxylates, polyacrylates, polyacrylate copolymers, acrylic and/or methacrylic copolymers, salts and a mixture thereof, and c) from 0.001 to 5 wt.%, advantageously from 0.005 to 1 wt.%, more advantageously from 0.01 to 0.5 wt.%, relative to the total weight of the suspension, of at least one anti-foaming agent, advantageously selected from the group consisting of organic oils, polyglycols, fatty acid esters or polyesters and mixtures thereof, said oils or polyglycols possibly containing organic or mineral particles in suspension
A method of forming a scroll component characterised by: forming a single involute green component including an involute scroll form and a base comprised of metallic powder; forming a green hub form; providing a brazing material for joining said base and said hub; sintering said single involute green component and green hub form to form the scroll component, wherein said sintering applies sufficient heat to melt said brazing material and thereby couples said green base to said green hub form. forming a single involute green component including an involute scroll form and a base comprised of metallic powder; forming a green hub form; providing a brazing material for joining said base and said hub; sintering said single involute green component and green hub form to form the scroll component, wherein said sintering applies sufficient heat to melt said brazing material and thereby couples said green base to said green hub form.
A method of providing a prognosis for a cancer in a human, the method comprising the steps of: (a) contacting a test tissue sample from an individual at risk for or known to have a cancer with one or more antibodies that specifically bind to a modified histone protein; and (b) determining according to the binding of the one or more antibodies, one or more global histone modification patterns in the test tissue sample in comparison to a control tissue sample; thereby providing a prognosis for said cancer by identification of an altered global histone modification pattern, wherein the global histone modification is H3K18 acetylation. (a) contacting a test tissue sample from an individual at risk for or known to have a cancer with one or more antibodies that specifically bind to a modified histone protein; and (b) determining according to the binding of the one or more antibodies, one or more global histone modification patterns in the test tissue sample in comparison to a control tissue sample; thereby providing a prognosis for said cancer by identification of an altered global histone modification pattern,
A method of installing a fastener (10, 110) comprising: providing an installation tool (2060, 3060) including a frame (2062, 3062) having a frame bottom surface (2069, 3069), a guide (2080, 3480, 3580) defining an angled bore with a first opening and a second opening, and an alignment projection extending downwardly away from the frame (2062, 3062); placing the installation tool (2060, 3060) atop a second board (2102, 2012', 3102) that is laying immediately adjacent and contacting a first board (2103, 2103', 3103); wedging the alignment projection (2090, 3090) between a first corner (2119, 2119', 3119) of the first board (2103, 2103', 3103) and a second corner (2109, 2109', 3109) of the second board (2102, 2102', 3102) without breaking contact between the second board (2102, 2102', 3102) and the first board (2103, 2103', 3103), so that no gap is established between a first side surface (2118, 3118) of the first board (2103, 2103', 3103) and an adjacent second side surface (2108, 3108) of the second board (2102, 2012', 3102); inserting a first fastener (10, 110) into the angled bore via the first opening; advancing the first fastener (10, 110) out of the second opening and through at least one of the second corner (2109, 2109', 3109) and the second side surface (2108, 3108) of the second board (2102, 2102', 3102), with the second side surface (2108, 3108) maintained in contact with the first side surface (2118, 3118) immediately after installation of the first fastener (10, 110). providing an installation tool (2060, 3060) including a frame (2062, 3062) having a frame bottom surface (2069, 3069), a guide (2080, 3480, 3580) defining an angled bore with a first opening and a second opening, and an alignment projection extending downwardly away from the frame (2062, 3062); placing the installation tool (2060, 3060) atop a second board (2102, 2012', 3102) that is laying immediately adjacent and contacting a first board (2103, 2103', 3103); wedging the alignment projection (2090, 3090) between a first corner (2119, 2119', 3119) of the first board (2103, 2103', 3103) and a second corner (2109, 2109', 3109) of the second board (2102, 2102', 3102) without breaking contact between the second board (2102, 2102', 3102) and the first board (2103, 2103', 3103), so that no gap is established between a first side surface (2118, 3118) of the first board (2103, 2103', 3103) and an adjacent second side surface (2108, 3108) of the second board (2102, 2012', 3102); inserting a first fastener (10, 110) into the angled bore via the first opening; advancing the first fastener (10, 110) out of the second opening and through at least one of the second corner (2109, 2109', 3109) and the second side surface (2108, 3108) of the second board (2102, 2102', 3102), with the second side surface (2108, 3108) maintained in contact with the first side surface (2118, 3118) immediately after installation of the first fastener (10, 110).
Electrical plug-in connector, comprising - a housing with a front end and a rear end, both of which are interconnected by means of a housing interior space that is open at both ends, the walls of which are equipped with first locking means (222, 223), - a locking body arranged within the housing interior space, the walls of which are equipped with second locking means which engage with the first locking means (222, 223) such that the locking body is axially fastened inside the housing interior space, and - a contact unit fastened within, and passing axially through, the locking body, comprising a rigid terminal pin section facing toward the front end of the housing and a cable electrically and mechanically connected to it, that passes through the rear end of the housing, wherein the locking body is designed as a overmold body that securely embeds the contact unit in the connection region of the cable with the terminal pin section, characterized in that, the cable bears a closed-pore porous elastomer sleeve in the region in which it contacts the locking body. - a housing with a front end and a rear end, both of which are interconnected by means of a housing interior space that is open at both ends, the walls of which are equipped with first locking means (222, 223), - a locking body arranged within the housing interior space, the walls of which are equipped with second locking means which engage with the first locking means (222, 223) such that the locking body is axially fastened inside the housing interior space, and - a contact unit fastened within, and passing axially through, the locking body, comprising a rigid terminal pin section facing toward the front end of the housing and a cable electrically and mechanically connected to it, that passes through the rear end of the housing,
An orally disintegrating tablet comprising less than or equal to 20 mg of a corticosteroid selected from the group consisting of fluticasone, flunisolide, ciclesonide, mometasone, beclomethasone and solvates and esters thereof, and at least one disintegrant, wherein the ODT disintegrates within 60 seconds in simulated saliva fluid when tested using the USP <701> Disintegration Test and is suitable for topical administration of the corticosteroid in the esophagus.
Use of an adhesive for fastening workpieces which are sanded and polished after curing of the adhesive, characterized in that the adhesive is a crosslinkable silicone elastomer composition comprising 35-80% by weight of at least one compound selected from the group containing nonreinforcing fillers, branched silicone resins or mixtures thereof, and in that the crosslinkable silicone elastomer composition has a ratio of the dynamic viscosity at the shear rates of 1 s -1 and 100 s -1 at room temperature of not more than 1.2, and in that the crosslinked silicone rubber has a Shore A hardness to DIN 53505 of between 30 and 95, the tear propagation resistance to ASTM D624-B-91 of not more than 4 N/mm, the elongation at break to DIN 53504-85S1 of not more than 150%, and the tensile strength to DIN 53504-85S1 of not more than 3 N/mm 2. 35-80% by weight of at least one compound selected from the group containing nonreinforcing fillers, branched silicone resins or mixtures thereof, and in that the crosslinkable silicone elastomer composition has a ratio of the dynamic viscosity at the shear rates of 1 s -1 and 100 s -1 at room temperature of not more than 1.2, and in that the crosslinked silicone rubber has a Shore A hardness to DIN 53505 of between 30 and 95, the tear propagation resistance to ASTM D624-B-91 of not more than 4 N/mm, the elongation at break to DIN 53504-85S1 of not more than 150%, and the tensile strength to DIN 53504-85S1 of not more than 3 N/mm 2.
A method for reducing sample rate of a streaming protocol in a mesh network, the method comprising: receiving, by a source node in the mesh network, an input data stream; generating, by the source node, a plurality of sample frames from the received input data stream, each of the plurality of sample frames having a sample rate that can be handled by the mesh network; and transmitting the plurality of the sample frames to one or more sink nodes, for reconstruction of the input data stream, wherein the source node transmits the plurality of sample frames to the one or more sink nodes along with a meta-data including one or more reconstruction parameters associated with the input data stream; wherein reconstruction of the input data stream is performed through interpolation of the plurality of sample frames using the one or more reconstruction parameters included in the meta-data. receiving, by a source node in the mesh network, an input data stream; generating, by the source node, a plurality of sample frames from the received input data stream, each of the plurality of sample frames having a sample rate that can be handled by the mesh network; and transmitting the plurality of the sample frames to one or more sink nodes, for reconstruction of the input data stream, wherein the source node transmits the plurality of sample frames to the one or more sink nodes along with a meta-data including one or more reconstruction parameters associated with the input data stream; wherein reconstruction of the input data stream is performed through interpolation of the plurality of sample frames using the one or more reconstruction parameters included in the meta-data.
Energy supply system having a controllable energy store serving to control and supply electrical energy to an n-phase electric machine, where n ≥ 1, wherein - the controllable energy store has n parallel energy supply branches (3-1, 3-2, 3-3), which • have in each case at least two energy storage modules, which are connected in series and comprise in each case at least one electrical energy storage cell having an associated controllable coupling unit, • can be connected on one side to a reference rail (T-) and • can be connected on the other side to in each case one phase (U, V, W) of the electric machine, wherein, depending on control signals, the coupling units bypass the respectively associated energy storage cells or connect the respectively associated energy storage cells into the respective energy supply branch (3-1, 3-2; 3-3), and - in at least one of the energy supply branches, the energy storage cells of the energy storage module connected directly to the reference rail (T-) are linked directly to the reference rail (T-) and serve as energy stores for a DC link. - the controllable energy store has n parallel energy supply branches (3-1, 3-2, 3-3), which • have in each case at least two energy storage modules, which are connected in series and comprise in each case at least one electrical energy storage cell having an associated controllable coupling unit, • can be connected on one side to a reference rail (T-) and • can be connected on the other side to in each case one phase (U, V, W) of the electric machine, wherein, depending on control signals, the coupling units bypass the respectively associated energy storage cells or connect the respectively associated energy storage cells into the respective energy supply branch (3-1, 3-2; 3-3), and • have in each case at least two energy storage modules, which are connected in series and comprise in each case at least one electrical energy storage cell having an associated controllable coupling unit, • can be connected on one side to a reference rail (T-) and • can be connected on the other side to in each case one phase (U, V, W) of the electric machine, - in at least one of the energy supply branches, the energy storage cells of the energy storage module connected directly to the reference rail (T-) are linked directly to the reference rail (T-) and serve as energy stores for a DC link.
A memory system comprising: a split-gate flash memory cell comprising a first bit line terminal and a first source line terminal; a first bit line coupled to the first bit line terminal; a strap cell (1020, 1020-1, 1020-2) comprising a second bit line terminal and a second source line terminal; a first pull down circuit contact; a second pull down circuit contact; a second bit line coupled to the second bit line terminal, the first pull down circuit contact, and the second pull down circuit contact, wherein the first pull down circuit contact is located on one end of the second bit line and the second pull down circuit contact is located on an opposite end of the second bit line; a source line coupled to the first source line terminal and the second source line terminal; and a first pull down circuit coupled to the first pull down circuit contact and a second pull down circuit coupled to the second pull down circuit contact that selectively couple the second bit line to ground when the split-gate flash memory cell is being read or erased and to a voltage source when the split-gate flash memory cell is being programmed. a split-gate flash memory cell comprising a first bit line terminal and a first source line terminal; a first bit line coupled to the first bit line terminal; a strap cell (1020, 1020-1, 1020-2) comprising a second bit line terminal and a second source line terminal; a first pull down circuit contact; a second pull down circuit contact; a second bit line coupled to the second bit line terminal, the first pull down circuit contact, and the second pull down circuit contact, wherein the first pull down circuit contact is located on one end of the second bit line and the second pull down circuit contact is located on an opposite end of the second bit line; a source line coupled to the first source line terminal and the second source line terminal; and a first pull down circuit coupled to the first pull down circuit contact and a second pull down circuit coupled to the second pull down circuit contact that selectively couple the second bit line to ground when the split-gate flash memory cell is being read or erased and to a voltage source when the split-gate flash memory cell is being programmed.
Method for replacing a sliding pad (7, 8) of a rotational sliding bearing, wherein the bearing comprises a plurality of sliding pads (7, 8) each supporting an annular rotatable part of the bearing on a stationary part of the bearing in an axial direction and/or a radial direction, wherein the stationary part is annular and the rotatable part is arranged on a circumference of the stationary part, wherein the stationary part comprises a plurality of axial and/or radial openings (9, 10) arranged circumferentially and/or axially displaced in the circumference of the stationary part, comprising the steps: - Removing a load of the rotatable part from the sliding pad (7, 8) to be removed by applying a force to the rotatable part, - Removing the sliding pad (7, 8) in an axial and/or a radial direction through one of the openings (9, 10), - Inserting a replacement sliding pad (7, 8) through the opening (9, 10), - Supporting the rotatable part on the replacement sliding pad (7, 8) by removing the force applied to the rotatable part. - Removing a load of the rotatable part from the sliding pad (7, 8) to be removed by applying a force to the rotatable part, - Removing the sliding pad (7, 8) in an axial and/or a radial direction through one of the openings (9, 10), - Inserting a replacement sliding pad (7, 8) through the opening (9, 10), - Supporting the rotatable part on the replacement sliding pad (7, 8) by removing the force applied to the rotatable part.
A method of registering during a single registration process in an IP Multimedia Subsystem "IMS" at least one implicit registration set selected from: an implicit registration of a number 'n' of IMS private identities and an implicit registration of a number 'm' of contact addresses, the method comprising the steps of: - receiving (S-130) at a Home Subscriber Server "HSS" (1, 1a), which holds subscriptions for subscribers of the IMS, from a Serving Call Session Control Function "S-CSCF", which is currently assigned for serving a subscriber of the IMS, an indication of a registration of said subscriber with a given IMS public identity "IMPU" and a given IMS private identity "IMPI", and an identifier of said S-CSCF; and characterised in that it also comprises: - configuring (S-100) subscriber data for the subscriber at the HSS with at least one implicit registration set selected from: a set (120, 140, 170, 200) including a number 'n' of IMPI's (101, 105) associated with the given IMPI or with the given IMPU, and a set (120, 130, 170, 190) including a number 'm' of contact addresses per IMPI basis; - downloading (S-135) from the HSS (1, 1a) towards the S-CSCF said at least one implicit registration set; and - building up (S-140) a data model in the S-CSCF comprising: the given IMPI explicitly registered, the given IMPU explicitly registered, and the at least one implicit registration set selected from: the set including a number 'n' of IMPI's associated with the given IMPI or with the given IMPU, and the set including a number 'm' of contact addresses per IMPI basis. - receiving (S-130) at a Home Subscriber Server "HSS" (1, 1a), which holds subscriptions for subscribers of the IMS, from a Serving Call Session Control Function "S-CSCF", which is currently assigned for serving a subscriber of the IMS, an indication of a registration of said subscriber with a given IMS public identity "IMPU" and a given IMS private identity "IMPI", and an identifier of said S-CSCF; - configuring (S-100) subscriber data for the subscriber at the HSS with at least one implicit registration set selected from: a set (120, 140, 170, 200) including a number 'n' of IMPI's (101, 105) associated with the given IMPI or with the given IMPU, and a set (120, 130, 170, 190) including a number 'm' of contact addresses per IMPI basis; - downloading (S-135) from the HSS (1, 1a) towards the S-CSCF said at least one implicit registration set; and - building up (S-140) a data model in the S-CSCF comprising: the given IMPI explicitly registered, the given IMPU explicitly registered, and the at least one implicit registration set selected from: the set including a number 'n' of IMPI's associated with the given IMPI or with the given IMPU, and the set including a number 'm' of contact addresses per IMPI basis.