mhurhangee/ep-ind-claims huggingface dataset:
A street lighting pole base, comprising: at least one upright outer wall defining an enclosed space of the street lighting pole base; a divider dividing the enclosed space into at least two bays arranged side by side, the at least two bays including a first bay and a second bay; an individual air inlet for the first bay provided at the bottom of the divider; first mounting means for mounting a first heat dissipating device used for wireless telecommunication in a first position in the first bay; second mounting means for mounting a second heat dissipating device used for wireless telecommunication in a second position in the first bay, which second position is vertically higher than the first position; and a sub-divider arranged in the first bay and adapted to split an airflow from the individual air inlet for the first bay into a first sub-airflow into a first sub-bay and intended to mainly cool the first heat dissipating device used for wireless telecommunication when mounted in the first position in the first sub-bay but substantially not the second heat dissipating device used for wireless telecommunication when mounted in the second position and a second sub-airflow into a second sub-bay and intended to mainly cool the second heat dissipating device used for wireless telecommunication when mounted in the second position in the second sub-bay but substantially not the first heat dissipating device used for wireless telecommunication when mounted in the first position. at least one upright outer wall defining an enclosed space of the street lighting pole base; a divider dividing the enclosed space into at least two bays arranged side by side, the at least two bays including a first bay and a second bay; an individual air inlet for the first bay provided at the bottom of the divider; first mounting means for mounting a first heat dissipating device used for wireless telecommunication in a first position in the first bay; second mounting means for mounting a second heat dissipating device used for wireless telecommunication in a second position in the first bay, which second position is vertically higher than the first position; and a sub-divider arranged in the first bay and adapted to split an airflow from the individual air inlet for the first bay into a first sub-airflow into a first sub-bay and intended to mainly cool the first heat dissipating device used for wireless telecommunication when mounted in the first position in the first sub-bay but substantially not the second heat dissipating device used for wireless telecommunication when mounted in the second position and a second sub-airflow into a second sub-bay and intended to mainly cool the second heat dissipating device used for wireless telecommunication when mounted in the second position in the second sub-bay but substantially not the first heat dissipating device used for wireless telecommunication when mounted in the first position.
A recombinant non-human organism genetically engineered to convert 5-aminopentanoate into a polyhydroxyalkanoate polymer or copolymer thereof comprising 5-hydroxyvalerate, wherein the pathway to convert 5-aminopentanoate to PHA comprising 5-hydroxyvalerate comprises 5-aminopentanoate transaminase (δ-aminovalerate transaminase), EC 2.6.1.48; succinate semialdehyde reductase (a.k.a. glutarate semialdehyde reductase), EC 1.1.1.61; CoA-transferase, EC 2.8.3.14 and EC 2.8.3.n or Acyl-CoA synthetase, EC 6.2.1.3; and PHA synthase, EC 2.3.1.n; and wherein the recombinant organism produces the PHA comprising 5-hydroxyvalerate from lysine, wherein the recombinant organism is genetically engineered to express at least one or more gene(s) encoding one or more enzymes to produce the PHA comprising 5-hydroxyvalerate from lysine wherein the enzymes are selected from the group consisting of: lysine 2-monooxygenase, EC 1.13.12.2; 5-aminopentanamidase (δ-aminovaleramidase), EC 3.5.1.30; 5-aminopentanoate transaminase (δ-aminovalerate transaminase), EC 2.6.1.48; succinate semialdehyde reductase (a.k.a. glutarate semialdehyde reductase), EC 1.1.1.61; CoA-transferase, EC 2.8.3.14 and EC 2.8.3.n; Acyl-CoA synthetase, EC 6.2.1.3; PHA synthase, EC 2.3.1.n, wherein the 5-aminopentanoate is converted into 5-hydroxyvalerate, and wherein the 5-hydroxyvalerate is converted into PHA polymer or copolymer thereof by the recombinant organism. wherein the pathway to convert 5-aminopentanoate to PHA comprising 5-hydroxyvalerate comprises 5-aminopentanoate transaminase (δ-aminovalerate transaminase), EC 2.6.1.48; succinate semialdehyde reductase (a.k.a. glutarate semialdehyde reductase), EC 1.1.1.61; CoA-transferase, EC 2.8.3.14 and EC 2.8.3.n or Acyl-CoA synthetase, EC 6.2.1.3; and PHA synthase, EC 2.3.1.n; and wherein the recombinant organism produces the PHA comprising 5-hydroxyvalerate from lysine, wherein the recombinant organism is genetically engineered to express at least one or more gene(s) encoding one or more enzymes to produce the PHA comprising 5-hydroxyvalerate from lysine wherein the enzymes are selected from the group consisting of: lysine 2-monooxygenase, EC 1.13.12.2; 5-aminopentanamidase (δ-aminovaleramidase), EC 3.5.1.30; 5-aminopentanoate transaminase (δ-aminovalerate transaminase), EC 2.6.1.48; succinate semialdehyde reductase (a.k.a. glutarate semialdehyde reductase), EC 1.1.1.61; CoA-transferase, EC 2.8.3.14 and EC 2.8.3.n; Acyl-CoA synthetase, EC 6.2.1.3; PHA synthase, EC 2.3.1.n, wherein the 5-aminopentanoate is converted into 5-hydroxyvalerate, and wherein the 5-hydroxyvalerate is converted into PHA polymer or copolymer thereof by the recombinant organism.
An energy storage system, the system comprising at least one energy storage module, each module comprising a plurality of energy storage devices; wherein the energy storage device is designed as a battery cell; each energy storage device comprising at least one electrically conducting cell tab electrically connected to electrodes of the energy storage device, one end of the at least one electrically conducting cell tab protruding from the energy storage device; wherein the energy storage module further comprises a cooler for each energy storage device, the cooler comprising one or more enclosed cooling channels in thermal contact with one surface of the energy storage device; wherein the cooling channels of the cooler comprise an electrically non-conducting material; wherein the material of the cooling channels is thermally conducting and wherein the cooler further comprises a section of the cooling channels thermally coupled to the protruding end of the cell tab, wherein the channel walls further form a raised section at an end of the cooler to connect the cell tab to. wherein the material of the cooling channels is thermally conducting and wherein the cooler further comprises a section of the cooling channels thermally coupled to the protruding end of the cell tab, wherein the channel walls further form a raised section at an end of the cooler to connect the cell tab to.
A method for producing sound and/or heat insulation products comprising - spraying a sizing composition comprising: - a mixture of hydrogenated sugars comprising at least 25% by weight of maltitol, calculated on the basis of the dry matter of the hydrogenated sugars, and - at least one polyfunctional crosslinking agent, onto mineral fibers leaving a centrifugation device and before collection thereof in form of a mat of fibers by a receiving element - treatment of the mat of fibers at a temperature sufficient for crosslinking of the sizing composition and formation of an infusible binder. - spraying a sizing composition comprising: - a mixture of hydrogenated sugars comprising at least 25% by weight of maltitol, calculated on the basis of the dry matter of the hydrogenated sugars, and - at least one polyfunctional crosslinking agent, onto mineral fibers leaving a centrifugation device and before collection thereof in form of a mat of fibers by a receiving element - a mixture of hydrogenated sugars comprising at least 25% by weight of maltitol, calculated on the basis of the dry matter of the hydrogenated sugars, and - at least one polyfunctional crosslinking agent, onto mineral fibers leaving a centrifugation device and before collection thereof in form of a mat of fibers by a receiving element - treatment of the mat of fibers at a temperature sufficient for crosslinking of the sizing composition and formation of an infusible binder.
A method of manufacturing a faceplate for a hearing device, the faceplate configured to cover a lateral opening of a housing of the hearing device and having a side which is laterally oriented when the hearing device is worn at least partially in the ear canal, comprising the steps of: providing a faceplate base part comprising a first surface, a faceplate insertion part comprising a second surface, and a printed circuit board ("PCB") with an antenna; inserting the antenna PCB into the faceplate base part so that that the antenna PCB extends along the first surface; inserting the faceplate insertion part into the faceplate base part so that the second surface of the faceplate insertion part pushes the antenna PCB against the first surface of the faceplate base part; and fixing the faceplate insertion part within the faceplate base part so as to form the faceplate. providing a faceplate base part comprising a first surface, a faceplate insertion part comprising a second surface, and a printed circuit board ("PCB") with an antenna; inserting the antenna PCB into the faceplate base part so that that the antenna PCB extends along the first surface; inserting the faceplate insertion part into the faceplate base part so that the second surface of the faceplate insertion part pushes the antenna PCB against the first surface of the faceplate base part; and fixing the faceplate insertion part within the faceplate base part so as to form the faceplate.
A housing blank for a heating valve, comprising two parallel branches (12, 14) each of which has a connector (16, 18) for a heating pipe (32, 34) at one end and an auxiliary connector (20, 22) at the other end, the blank further comprising a cross-bar that interconnects the two branches (12, 14) in a "H" configuration and forms a valve seat as well as a holder for a valve head, the holder being orthogonal to an axis that extends in longitudinal direction of the cross-bar, so that the valve head to be inserted into this holder projects from the housing blank, characterized in that the connectors (16, 18) and auxiliary connectors (20, 22) have a 180° rotational symmetry with respect to an axis that extends normal to the plane of the "H" through the centre of the cross-bar.
A heat exchanger comprising: - a primary side; - a secondary side; - at least one primary structure (26, 42, 50) on the primary side defining at least one primary space (34, 46) on the primary side; and - at least one secondary structure (28, 44, 50) on the secondary side defining at least one secondary space (36, 48) on the secondary side; wherein one or more of the at least one primary structure (26, 42, 50) and one or more of the at least one secondary structure (28, 44, 50) delimit a coolant volume separated from the at least one primary space (34, 46) and separated from the at least one secondary space (36, 48); wherein one or more of the at least one primary structure (26, 42) and/or one or more of the at least one secondary structure (28, 44) comprises a three dimensional lattice body; and characterised in that the heat exchanger further comprises a separation structure providing a fluid tight seal between the at least one primary space (34, 46) on the primary side and the at least one secondary space (36, 48) on the secondary side, and wherein the separation structure is configured to allow coolant of the coolant volume to flow between the primary side and the secondary side. - a primary side; - a secondary side; - at least one primary structure (26, 42, 50) on the primary side defining at least one primary space (34, 46) on the primary side; and - at least one secondary structure (28, 44, 50) on the secondary side defining at least one secondary space (36, 48) on the secondary side; wherein one or more of the at least one primary structure (26, 42, 50) and one or more of the at least one secondary structure (28, 44, 50) delimit a coolant volume separated from the at least one primary space (34, 46) and separated from the at least one secondary space (36, 48); wherein one or more of the at least one primary structure (26, 42) and/or one or more of the at least one secondary structure (28, 44) comprises a three dimensional lattice body; and characterised in that the heat exchanger further comprises a separation structure providing a fluid tight seal between the at least one primary space (34, 46) on the primary side and the at least one secondary space (36, 48) on the secondary side, and wherein the separation structure is configured to allow coolant of the coolant volume to flow between the primary side and the secondary side.
A silencer housing, having a shell, which encloses a housing interior in circumferential direction, characterized by at least one preload device which is arranged in the housing interior, which supports itself on a first support region of the shell on the shell inside subject to a first preload orientated towards the outside and which supports itself on a second support region of the shell on the shell inside that is spaced from the first support region subject to a second preload which is orientated towards the outside.
An article comprising: a coating disposed on a substrate, the coating comprising a plurality of elongated surface-connected voids allowing access for environmental contaminants to the interior of the coating and including a ceramic thermal barrier material; and a protective agent disposed within at least some of the voids of the coating; wherein the protective agent comprises a substance capable of chemically reacting with liquid nominal CMAS to form a solid crystalline product, which is not included in the set of crystalline phases that can be formed from combinations of the component oxides of the nominal CMAS composition; wherein the solid crystalline product has a melting temperature greater than 1200 degrees Celsius, wherein the term nominal CMAS refers to the following composition, with all percentages in mole percent: 41.6% silica (SiO 2), 29.3% calcia (CaO), 12.5% alumina (AlO 1.5), 9.1% magnesia (MgO), 6.0% iron oxide (FeO 1.5), and 1.5% nickel oxide (NiO), characterized in that the protective agent comprises MZr 4 (PO 4) 6, wherein M comprises at least one alkaline earth metal including beryllium, magnesium, calcium, strontium, barium, or combinations thereof. a coating disposed on a substrate, the coating comprising a plurality of elongated surface-connected voids allowing access for environmental contaminants to the interior of the coating and including a ceramic thermal barrier material; and a protective agent disposed within at least some of the voids of the coating; wherein the protective agent comprises a substance capable of chemically reacting with liquid nominal CMAS to form a solid crystalline product, which is not included in the set of crystalline phases that can be formed from combinations of the component oxides of the nominal CMAS composition; wherein the solid crystalline product has a melting temperature greater than 1200 degrees Celsius,
Component for an electrical machine comprising a body composed of a magnetic material, wherein at least one pocket extending in an axial direction is provided in the body, said at least one pocket having a coupling surface in order to provide an excitation magnetic field outside the body, wherein permanent magnets inserted into the pockets can be placed on the coupling surfaces by their pole surfaces; wherein the pocket has a widening in a direction perpendicular to the coupling surface at one end of the body relative to an axial direction (z), such that a permanent magnet to be inserted projects into the widening with a variable proportion of one of its pole surfaces depending on the positioning in the pocket, characterized in that the position of a permanent magnet in the pocket is chosen depending on the remanence of said permanent magnet.
An image processing apparatus configured to generate a printing image for printing document data by a printer, comprising: a first processing part configured to generate from character data contained in the document data first processing data having a resolution in a main scanning direction n-times higher than a resolution set by a printing order of a user, and to tone-convert the first processing data to the tones available at the printer by a halftone display method; a second processing part configured to generate from image data contained in the document data tone-converted second processing data having a pixel density, that is a bit number per inch, consistent with a pixel density of the first processing data by performing n-times tone conversion of the image data contained in the document data, the n-times tone conversion converting one dot of the image data to n dots of the tone converted second processing data by the halftone display method; and a printing image generating part configured to generate the printing image by synthesizing the tone-converted first processing data and the tone-converted second processing data. a first processing part configured to generate from character data contained in the document data first processing data having a resolution in a main scanning direction n-times higher than a resolution set by a printing order of a user, and to tone-convert the first processing data to the tones available at the printer by a halftone display method; a second processing part configured to generate from image data contained in the document data tone-converted second processing data having a pixel density, that is a bit number per inch, consistent with a pixel density of the first processing data by performing n-times tone conversion of the image data contained in the document data, the n-times tone conversion converting one dot of the image data to n dots of the tone converted second processing data by the halftone display method; and a printing image generating part configured to generate the printing image by synthesizing the tone-converted first processing data and the tone-converted second processing data.
Device (1, 31) for providing containers with particularly self-sticking adhesive labels, comprising: - rotary tables comprising circulating positioning units, and centering bells for clamping and aligning the containers; - at least one stationary label dispenser for dispensing and gluing first sections of the labels to the top sides of the containers; - press-on means (7, 17) for pressing second sections of the labels onto side wall portions of the containers to be labeled; and - lifting means for lifting the centering bells from the aligned containers in a controlled manner before the containers reach the label dispenser, characterized in that the press-on means with the positioning units are configured to circulate on a joint container table and can be moved against the side wall portion to be labeled and a side wall portion opposite thereto so as to take over the clamped containers from the centering bells and to fix them laterally, and/or that the positioning units comprise actively controllable grippers for laterally gripping around the aligned containers in such a manner that prior to the lifting of the centering bells the containers can be taken over in a fixed rotary position from the centering bells and can be held centered for labeling in the positioning units. - rotary tables comprising circulating positioning units, and centering bells for clamping and aligning the containers; - at least one stationary label dispenser for dispensing and gluing first sections of the labels to the top sides of the containers; - press-on means (7, 17) for pressing second sections of the labels onto side wall portions of the containers to be labeled; and - lifting means for lifting the centering bells from the aligned containers in a controlled manner before the containers reach the label dispenser,
An embossed multi ply cellulosic material comprising at least one first outer ply and at least one second outer ply, wherein at least one of said outer plies is decorated with an embossing, and wherein plies are joined through gluing; characterized in that - said embossing defines raised decorative elements, projecting outwards relative to a gluing surface, at which the ply decorated with said embossing is glued to an underlying ply; - said decorative elements are separated from each other by said gluing surface, wherein the gluing surface develops around the decorative elements, thus forming a continuous distribution of glue surrounding each said decorative element, with an irregular trend, the glued surface presenting a variable cross dimension and curvilinear edges, which define the contour of the decorative elements; - the surface surrounding said decorative elements is completely glued to the underlying ply - the glued area covers at least 15% of the whole surface of the cellulosic material. - said embossing defines raised decorative elements, projecting outwards relative to a gluing surface, at which the ply decorated with said embossing is glued to an underlying ply; - said decorative elements are separated from each other by said gluing surface, wherein the gluing surface develops around the decorative elements, thus forming a continuous distribution of glue surrounding each said decorative element, with an irregular trend, the glued surface presenting a variable cross dimension and curvilinear edges, which define the contour of the decorative elements; - the surface surrounding said decorative elements is completely glued to the underlying ply - the glued area covers at least 15% of the whole surface of the cellulosic material.
A fuel cell, comprising: a membrane electrode assembly with a frame at a peripheral portion; and a separator disposed on both sides of the frame and the membrane electrode assembly, wherein a protrusion (3R; 1R) and a counterpart groove (1G; 3G) where a tip of the protrusion (3R; 1R) is inserted are respectively formed on portions of the frame and the separator facing each other, and the tip of the protrusion (3R; 1R) is immersed in an adhesive that is injected in the groove (1G; 3G) so that the groove (1G; 3G) and the protrusion (3R; 1R) are joined to each other, characterized in that a room, which is hermetically separated by the adhesive, is formed between the frame and the separator on the groove (1G; 3G) at least at a side of the protrusion (3R; 1R) closer to the membrane electrode assembly. a membrane electrode assembly with a frame at a peripheral portion; and a separator disposed on both sides of the frame and the membrane electrode assembly,
A combination of at least one beverage dispenser modular manifold and two end caps, wherein the beverage dispenser modular manifold comprises: at least one inlet port for carbonated water; and at least one outlet port for dispensing carbonated water; at least one inlet port for non-carbonated water; at least one outlet port for dispensing non-carbonated water; characterised by: at least two connection ports for recirculating carbonated water; and at least two connection ports for circulating non-carbonated water, wherein the connection ports are adapted for connection to another manifold and to end caps; and wherein each end cap comprises: a connection port for non-carbonated water and two interconnected connection ports for recirculating carbonated water. at least one inlet port for carbonated water; and at least one outlet port for dispensing carbonated water; at least one inlet port for non-carbonated water; at least one outlet port for dispensing non-carbonated water; at least two connection ports for recirculating carbonated water; and at least two connection ports for circulating non-carbonated water, wherein the connection ports are adapted for connection to another manifold and to end caps; and a connection port for non-carbonated water and two interconnected connection ports for recirculating carbonated water.