mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger device, comprising: a tubular body having an inlet opening and an outlet opening and defining within itself a first pathway for a first liquid according to a first prevalent direction of advance from the inlet opening to the outlet opening; a first connecting terminal having at least a first inlet for the first liquid and being sealedly couplable to the inlet opening of the tubular body and further couplable, at the first inlet for the first liquid, to a first outlet pipe for the first liquid; a second connecting terminal having at least a first outlet for the first liquid and being sealedly couplable to the outlet of the tubular body and further couplable, at the first outlet for the first liquid, to a second outlet pipe for the first liquid; and an exchanger element having an inlet and an outlet for a second liquid and defining within itself a second pathway for the second liquid, the exchanger element being insertable in the tubular body in the first pathway and being couplable to the tubular body so as to define at least a surface for the support and flow of the first liquid in the first pathway inside the tubular body, characterised in that the second pathway of the exchange element includes channels having a strongly flattened tubular section with main walls corrugated transversely to the channels to form alternating contiguous projections and valleys. a tubular body having an inlet opening and an outlet opening and defining within itself a first pathway for a first liquid according to a first prevalent direction of advance from the inlet opening to the outlet opening; a first connecting terminal having at least a first inlet for the first liquid and being sealedly couplable to the inlet opening of the tubular body and further couplable, at the first inlet for the first liquid, to a first outlet pipe for the first liquid; a second connecting terminal having at least a first outlet for the first liquid and being sealedly couplable to the outlet of the tubular body and further couplable, at the first outlet for the first liquid, to a second outlet pipe for the first liquid; and an exchanger element having an inlet and an outlet for a second liquid and defining within itself a second pathway for the second liquid, the exchanger element being insertable in the tubular body in the first pathway and being couplable to the tubular body so as to define at least a surface for the support and flow of the first liquid in the first pathway inside the tubular body, characterised in that the second pathway of the exchange element includes channels having a strongly flattened tubular section with main walls corrugated transversely to the channels to form alternating contiguous projections and valleys.
A bolted flange assembly comprising: a first flange bolted to a second flange, a first circular row of first bolt holes extending axially through the first flange, bolts disposed through the first bolt holes and through second holes extending axially at least partially through the second flange, each of the bolts including a bolt head, a thread and a shank therebetween, crushable spacers disposed around the shanks of a first plurality of the bolts, the spacers contacting and axially extending between the bolt heads of the first plurality of the bolts and the first flange, bushings disposed around a second plurality of the bolts, and the bushings contacting and axially extending between the bolt heads of the second plurality of the bolts and the second flange. a first flange bolted to a second flange, a first circular row of first bolt holes extending axially through the first flange, bolts disposed through the first bolt holes and through second holes extending axially at least partially through the second flange, each of the bolts including a bolt head, a thread and a shank therebetween, crushable spacers disposed around the shanks of a first plurality of the bolts, the spacers contacting and axially extending between the bolt heads of the first plurality of the bolts and the first flange, bushings disposed around a second plurality of the bolts, and the bushings contacting and axially extending between the bolt heads of the second plurality of the bolts and the second flange.
A LED lamp, having - a retaining element for the retention of the lamp on a lamp support element, wherein the retaining element is mounted in relation to the rest of the LED lamp so as to be manually movable back and forth between a retention position, which serves for the retention of the LED lamp on the lamp support element and an open position, which serves for releasing the retention, wherein the retaining element has a projection, which is designed for securing the open position, characterized in that the retaining element has an arm section, which is designed elastically in relation to the rest of the retaining element, wherein the projection is formed on the arm section. - a retaining element for the retention of the lamp on a lamp support element,
A method for depositing a layer on a III-V semiconductor substrate, the method comprising: - providing a passivated III-V semiconductor substrate comprising a III-V semiconductor surface which has a surface passivation layer provided thereon for preventing oxidation of said III-V semiconductor surface, the surface passivation layer comprising a self-assembled monolayer material obtainable by the reaction on said III-V semiconductor surface of an organic compound of formula R-A, wherein A is selected from SH, SeH, and TeH, and wherein R is a hydrocarbyl, fluorocarbyl or hydrofluorocarbyl comprising from 5 to 20 carbon atoms, wherein providing the passivated III-V semiconductor substrate comprises: ∘ obtaining the III-V semiconductor substrate, ∘ removing oxides eventually present on the III-V semiconductor surface, and ∘ forming a surface passivation layer on the III-V semiconductor surface, wherein said forming said surface passivation layer comprises exposing the III-V semiconductor substrate to a fluid comprising the organic compound of formula R-A, - thermally annealing said passivated III-V semiconductor substrate in a non-oxidizing environment such as to decompose said self-assembled monolayer material, and - depositing a layer on said III-V semiconductor surface in said non-oxidizing environment. - providing a passivated III-V semiconductor substrate comprising a III-V semiconductor surface which has a surface passivation layer provided thereon for preventing oxidation of said III-V semiconductor surface, the surface passivation layer comprising a self-assembled monolayer material obtainable by the reaction on said III-V semiconductor surface of an organic compound of formula R-A, wherein A is selected from SH, SeH, and TeH, and wherein R is a hydrocarbyl, fluorocarbyl or hydrofluorocarbyl comprising from 5 to 20 carbon atoms, wherein providing the passivated III-V semiconductor substrate comprises: ∘ obtaining the III-V semiconductor substrate, ∘ removing oxides eventually present on the III-V semiconductor surface, and ∘ forming a surface passivation layer on the III-V semiconductor surface, wherein said forming said surface passivation layer comprises exposing the III-V semiconductor substrate to a fluid comprising the organic compound of formula R-A, ∘ obtaining the III-V semiconductor substrate, ∘ removing oxides eventually present on the III-V semiconductor surface, and ∘ forming a surface passivation layer on the III-V semiconductor surface, wherein said forming said surface passivation layer comprises exposing the III-V semiconductor substrate to a fluid comprising the organic compound of formula R-A, - thermally annealing said passivated III-V semiconductor substrate in a non-oxidizing environment such as to decompose said self-assembled monolayer material, and - depositing a layer on said III-V semiconductor surface in said non-oxidizing environment.
A surface treatment agent comprising an alkoxysilane compound having a cyclic silazane structure represented by the following general formula: wherein R 1 represents an unsubstituted linear alkyl group having 6 to 20 carbon atoms, R 2 represents a substituted or unsubstituted alkylene group having 3 to 6 carbon atoms that may include a heteroatom, R 3 and R 4 each independently represent a substituted or unsubstituted monovalent hydrocarbon group having 1 to 10 carbon atoms, and n represents an integer of 0 or 1.
A tubular connection comprising: a first pin with an external male threaded zone having external male threads disposed on a portion of the pin; and a first box with an internal female threaded zone having internal female threads disposed on a portion of the first box, the internal female threads configured to engage with the external male threads of the first pin; characterized in, that at least one of the first pin or the first box comprises a first torque shoulder surface (315, 515, 1315) comprising a surface roughness greater than or equal to 100 microns. a first pin with an external male threaded zone having external male threads disposed on a portion of the pin; and a first box with an internal female threaded zone having internal female threads disposed on a portion of the first box, the internal female threads configured to engage with the external male threads of the first pin; characterized in, that at least one of the first pin or the first box comprises a first torque shoulder surface (315, 515, 1315) comprising a surface roughness greater than or equal to 100 microns.
Process for the "one-pot" synthesis of tungsten and molybdenum chalcogenides nanocrystals with 2D. 1 D, and 0D morphologies including the following operations: a) mixing a thiotungstate or a thiomolybdate with one or more dispersant compounds X, in the ratio of 1 mmole of thiotungstate or a thiomolybdate to 1 - 50 ml of X, said compound X being selected from the class formed by: i) amines of general formula RNH 20 R 2 NH, in which R is an C 6-20 alkyl group ii) quaternary ammonium salts of general formula R 3 NH 4 +, where R represents a C 6-20 alkyl group, iii) fatty acids of general formula RCOOH, where R is an alkyl group, thiols general formula RSH, where R is C 8-20 an alkyl group, thereby obtaining a precursor of thiotungstate@X, or thiomolybdate@X formula b) thermally decomposing the said precursor at temperatures of 50 - 400 °C c) adding a solvent to the mixture in order to remove the compound X in excess d) obtaining nanocrystals of tungsten and molybdenum chalcogenides with 1D, 2D and 0D morphologies a) mixing a thiotungstate or a thiomolybdate with one or more dispersant compounds X, in the ratio of 1 mmole of thiotungstate or a thiomolybdate to 1 - 50 ml of X, said compound X being selected from the class formed by: i) amines of general formula RNH 20 R 2 NH, in which R is an C 6-20 alkyl group ii) quaternary ammonium salts of general formula R 3 NH 4 +, where R represents a C 6-20 alkyl group, iii) fatty acids of general formula RCOOH, where R is an alkyl group, thiols general formula RSH, where R is C 8-20 an alkyl group, thereby obtaining a precursor of thiotungstate@X, or thiomolybdate@X formula i) amines of general formula RNH 20 R 2 NH, in which R is an C 6-20 alkyl group ii) quaternary ammonium salts of general formula R 3 NH 4 +, where R represents a C 6-20 alkyl group, iii) fatty acids of general formula RCOOH, where R is an alkyl group, thiols general formula RSH, where R is C 8-20 an alkyl group, thereby obtaining a precursor of thiotungstate@X, or thiomolybdate@X formula b) thermally decomposing the said precursor at temperatures of 50 - 400 °C c) adding a solvent to the mixture in order to remove the compound X in excess d) obtaining nanocrystals of tungsten and molybdenum chalcogenides with 1D, 2D and 0D morphologies
A method for manufacturing a label with a hanging handle comprising steps of: i) providing a first laminated material which comprises a backing layer and a first frontal layer joined in a releasable manner, wherein said first frontal layer comprises a frontal surface; ii) coating said frontal surface of the first frontal layer with at least one layer of release promoter (12, 18), leaving a free zone from which said layer of release promoter (12, 18) is missing; iv) providing a second laminated material comprising a second frontal layer and an adhesive layer, wherein said second frontal layer has a predefined thickness; v) joining said first laminated material and said second laminated material of steps ii) and iv) in an assembled component or coupled material, so that the adhesive layer of the second laminated material adheres at least to the free zone of the first laminated material; vii) cutting a hanging handle in a handle zone of said second laminated material and only inside the thickness of the second laminated material, leaving said first frontal layer intact; cutting at least one secondary label in a secondary label zone different from said handle zone and only within the thickness of the second laminated material; forming a label outline in the first frontal layer, avoiding to cut the hanging handle and removing a portion of said first frontal layer thus creating a cavity which arranges a handle portion of said hanging handle, with the label formed, protruding overhangingly beyond said label outline, overhanging said cavity. i) providing a first laminated material which comprises a backing layer and a first frontal layer joined in a releasable manner, wherein said first frontal layer comprises a frontal surface; ii) coating said frontal surface of the first frontal layer with at least one layer of release promoter (12, 18), leaving a free zone from which said layer of release promoter (12, 18) is missing; iv) providing a second laminated material comprising a second frontal layer and an adhesive layer, wherein said second frontal layer has a predefined thickness; v) joining said first laminated material and said second laminated material of steps ii) and iv) in an assembled component or coupled material, so that the adhesive layer of the second laminated material adheres at least to the free zone of the first laminated material; vii) cutting a hanging handle in a handle zone of said second laminated material and only inside the thickness of the second laminated material, leaving said first frontal layer intact; cutting at least one secondary label in a secondary label zone different from said handle zone and only within the thickness of the second laminated material; forming a label outline in the first frontal layer, avoiding to cut the hanging handle and removing a portion of said first frontal layer thus creating a cavity which arranges a handle portion of said hanging handle, with the label formed, protruding overhangingly beyond said label outline, overhanging said cavity.
Method for operating a linear motor compressor comprising an electric linear motor, a cylinder and a linearly movable free piston arrangement with a piston, wherein the cylinder and the piston form a compression chamber, wherein the free piston arrangement is directly driven by the linear motor and is reciprocated along a stroke path between a top dead point (X OTP) and a bottom dead point (X UTP), wherein a fluid is supplied to the compression chamber from the outside, wherein the supplied fluid is compressed or expanded in the compression chamber and then discharged to the outside again, wherein at least one state variable (Z soll) is preset for the linear motor compressor, and wherein the linear motor is controlled in such a way that the linear motor compressor has the predetermined state variable (Z soll), characterized in that in that the free piston arrangement, starting from the bottom dead point (X UTP) during a compression phase up to the opening point of the outlet valve and subsequently during an ejection phase up to the closing point of the outlet valve, is driven in such a way with a predetermined state variable (Z soll), a predetermined velocity-path curve, in such a way that the average velocity (V m1) during the compression phase is higher than the average velocity (V m2) during the ejection phase.
A method for applying diffusion barriers, adhesion promoters, solders and electrical contacts and optionally further protective layers onto thermoelectric materials, wherein the diffusion barrier, adhesion promoters, solders and electrical contacts and optionally further protective layers are rolled or pressed simultaneously onto the thermoelectric material in one work process at a temperature at which the thermoelectric material is ductile and softened to the extent that it can be plastically deformed, where thin films of the respective layer materials are placed onto the thermoelectric material prior to rolling or pressing and are connected thereto under pressure.
A moving blade for a flow machine, in particular a steam turbine with a plug-in root with a first lobe and two second lobes, which in axial direction (a) are arranged on both sides of the first lobe, wherein the first and the second lobes on axial sides (3.i, 4.i) facing one another comprise a shoulder in axial direction in such a manner that the lobes comprise a first section (3.1, 4.1) located radially outside and a second section (3.2, 4.2) located radially inside, the axial extension (b F3) is smaller than that (b F1, b F2) of the first section located outside, characterized in that based on an axial total width (b) between axial sides (4.a) of the two second lobes facing away from one another, the radial height (h F1 /b) of the first section located radially outside lies in the range between 0.39 and 0.45, in particular between 0.40 and 0.44 and the radial height (h F/ b) of the second section located radially inside in the range between 0.40 and 0.46, in particular between 0.41 and 0.45.
A method of identifying synergistic combinatorial treatments of a selected disease, the method comprising the steps of: a) selecting a disease to be treated; b) building a dynamic model of the disease comprising: (i) using multivariate genetic, proteomic and metabolomic statistic analysis of groups of genes and establishing disease-associated pathways involved in disease genesis and progression, said disease-associated pathways being targets for drug development; (ii) testing the data of (i) on whole pathway association and validating the results in another data set; and (iii) organizing emerging pathways in hierarchical model and defining the most relevant mechanisms or cell targets by which the disease may be corrected; c) in silico disease-oriented screening of drugs approved for other diseases that target the most relevant pathways implicated in the model of b); d) testing drugs selected in c) alone and in combination(s), in a biological model of the disease, to identify combinations of biologically active approved drugs as candidates for the treatment of said selected disease; and e) selecting biologically active drugs identified from d) according to their respective targets in the dynamic model of the disease defined in b), to define synergistic combinatorial treatments comprising said drugs. a) selecting a disease to be treated; b) building a dynamic model of the disease comprising: (i) using multivariate genetic, proteomic and metabolomic statistic analysis of groups of genes and establishing disease-associated pathways involved in disease genesis and progression, said disease-associated pathways being targets for drug development; (ii) testing the data of (i) on whole pathway association and validating the results in another data set; and (iii) organizing emerging pathways in hierarchical model and defining the most relevant mechanisms or cell targets by which the disease may be corrected; (i) using multivariate genetic, proteomic and metabolomic statistic analysis of groups of genes and establishing disease-associated pathways involved in disease genesis and progression, said disease-associated pathways being targets for drug development; (ii) testing the data of (i) on whole pathway association and validating the results in another data set; and (iii) organizing emerging pathways in hierarchical model and defining the most relevant mechanisms or cell targets by which the disease may be corrected; c) in silico disease-oriented screening of drugs approved for other diseases that target the most relevant pathways implicated in the model of b); d) testing drugs selected in c) alone and in combination(s), in a biological model of the disease, to identify combinations of biologically active approved drugs as candidates for the treatment of said selected disease; and e) selecting biologically active drugs identified from d) according to their respective targets in the dynamic model of the disease defined in b), to define synergistic combinatorial treatments comprising said drugs.
Liquid-injected compressor element or expander element with a housing that comprises a rotor chamber in which at least one rotor is rotatably affixed by means of bearings, whereby the element is further provided with a connection for an injection circuit for the injection of liquid into the element, whereby the connection to the injection circuit is realised by means of a number of injection points (10a, 10b) in the housing, whereby the housing is further provided with separated integrated channels that start from the aforementioned injection points (10a, 10b) in the housing and open into the rotor chamber and at the aforementioned bearings respectively, and whereby at the injection points (10a, 10b) the aforementioned separated integrated channels connect to channels of a modular channelling piece of an injection module, characterized in that a cavity is provided in the housing that acts as a liquid reservoir for liquid for the rotor chamber or for one of the bearings, whereby the cavity provides a connection between one of the injection points (10a, 10b) and one of the separated integrated channels connected thereto.
Inlet nozzle for a water heater with bottom water supply, the inlet nozzle comprising a deflector, a fitting and a nozzle, wherein the deflector is a hollow body with an opening at lower end, a closed dome located opposite to the opening, and at least one side wall in the cavity of which the nozzle is arranged, said nozzle consists of a nozzle tube fastened to the deflector side wall and connected with its lower end to said fitting, which fitting has a fixing element at its lower end, wherein the nozzle tube is displaced from the geometric center of the deflector opening to the side wall of the deflector, characterized in that the upper end of the nozzle tube is open toward the closed dome of the deflector.