mhurhangee/ep-ind-claims huggingface dataset:
A power conversion device, comprising: a casing comprising a base plate, the base plate having a concave recess therein, the base plate forming a base plate convex hull at a side opposite to the concave recess; and a converter module at least partially located in the concave recess, characterized in that the power conversion device further comprises a coolant channel-forming plate located within the casing having a coolant channel-forming plate groove therein, the coolant channel-forming plate groove corresponding to the base plate convex hull, the coolant channel-forming plate and the base plate combining up, such that the base plate convex hull fluidly seals the coolant-channel forming plate groove, making the coolant channel-forming plate groove form a first coolant channel; and the base plate further has a base plate groove, the base plate groove corresponds to the coolant channel-forming plate and the coolant channel-forming plate fluidly seals the base plate groove, such that the base plate groove forms a second coolant channel at the same side of the base plate as the first coolant channel. a casing comprising a base plate, the base plate having a concave recess therein, the base plate forming a base plate convex hull at a side opposite to the concave recess; and a converter module at least partially located in the concave recess, characterized in that the power conversion device further comprises a coolant channel-forming plate located within the casing having a coolant channel-forming plate groove therein, the coolant channel-forming plate groove corresponding to the base plate convex hull, the coolant channel-forming plate and the base plate combining up, such that the base plate convex hull fluidly seals the coolant-channel forming plate groove, making the coolant channel-forming plate groove form a first coolant channel; and the base plate further has a base plate groove, the base plate groove corresponds to the coolant channel-forming plate and the coolant channel-forming plate fluidly seals the base plate groove, such that the base plate groove forms a second coolant channel at the same side of the base plate as the first coolant channel.
A process for producing acrylic acid, the process comprising the steps of: (a) reacting a reaction mixture comprising from 1 wt.% to 40 wt.% acetic acid, from 0.5 wt.% to 35 wt.% alkylenating agent, from 1 wt.% to 60 wt.% water, from 22 wt.% to 97.5 wt.% nitrogen, and from 1 wt.% to 3 wt.% oxygen over a catalyst and under conditions effective to form a crude acrylic acid comprising acrylate product and alkylenating agent; and (b) separating at least a portion of the crude acrylic acid product to form at least one alkylenating agent stream and at least one purified acrylic acid product stream comprising acetic acid, wherein the alkylenating agent is selected from the group consisting of: formaldehyde and a compound of formula I wherein R 5 and R 6 are independently selected from the group consisting of C 1 -C 12 hydrocarbons and hydrogen, X is selected from the group consisting of oxygen and sulfur, n is an integer from 1 to 10, and m is 1 or 2, (a) reacting a reaction mixture comprising from 1 wt.% to 40 wt.% acetic acid, from 0.5 wt.% to 35 wt.% alkylenating agent, from 1 wt.% to 60 wt.% water, from 22 wt.% to 97.5 wt.% nitrogen, and from 1 wt.% to 3 wt.% oxygen over a catalyst and under conditions effective to form a crude acrylic acid comprising acrylate product and alkylenating agent; and (b) separating at least a portion of the crude acrylic acid product to form at least one alkylenating agent stream and at least one purified acrylic acid product stream comprising acetic acid, formaldehyde and a compound of formula I wherein R 5 and R 6 are independently selected from the group consisting of C 1 -C 12 hydrocarbons and hydrogen, X is selected from the group consisting of oxygen and sulfur, n is an integer from 1 to 10, and m is 1 or 2,
A method for manufacturing a plurality of vacuum insulating glazings, wherein said method comprises the steps of: providing a plurality of first pane elements, applying a soldering material in paste form on a first surface along side edges of the first pane elements, where the soldering material is arranged for subsequent connection with a second pane element in order to provide a sealing between the outside of the vacuum pane and an inside void of the vacuum pane where vacuum is to be provided, moving the first pane elements comprising the soldering material into a first pre-heated thermal treatment compartment of a furnace arrangement, drying out the soldering material on the first pane elements in a heating step by evaporating solvent from the soldering material in the first furnace compartment by means of forced convection heating, moving the first pane elements from the first pre-heated thermal treatment compartment into a cooling compartment of the furnace arrangement, cooling said first pane element and the soldering material thereon in a cooling step in the cooling compartment by means of forced convection cooling, moving the first pane elements from the cooling compartment, and subsequently connecting the first pane elements to second pane elements by means of the dried out soldering material. providing a plurality of first pane elements, applying a soldering material in paste form on a first surface along side edges of the first pane elements, where the soldering material is arranged for subsequent connection with a second pane element in order to provide a sealing between the outside of the vacuum pane and an inside void of the vacuum pane where vacuum is to be provided, moving the first pane elements comprising the soldering material into a first pre-heated thermal treatment compartment of a furnace arrangement, drying out the soldering material on the first pane elements in a heating step by evaporating solvent from the soldering material in the first furnace compartment by means of forced convection heating, moving the first pane elements from the first pre-heated thermal treatment compartment into a cooling compartment of the furnace arrangement, cooling said first pane element and the soldering material thereon in a cooling step in the cooling compartment by means of forced convection cooling, moving the first pane elements from the cooling compartment, and subsequently connecting the first pane elements to second pane elements by means of the dried out soldering material.
A chromatographic separation process for recovering a polyunsaturated fatty acid (PUFA) product from a feed mixture, which comprises: (a) purifying the feed mixture in a first chromatographic separation step using as eluent a mixture of water and a first organic solvent, to obtain an intermediate product; and (b) purifying the intermediate product in a second chromatographic separation step using as eluent a mixture of water and a second organic solvent, to obtain the PUFA product, wherein the second organic solvent is different from the first organic solvent, and wherein the first chromatographic separation step comprises introducing the feed mixture into a simulated or actual moving bed chromatography apparatus and the second chromatographic separation step comprises introducing the intermediate product into a stationary bed chromatography apparatus. (a) purifying the feed mixture in a first chromatographic separation step using as eluent a mixture of water and a first organic solvent, to obtain an intermediate product; and (b) purifying the intermediate product in a second chromatographic separation step using as eluent a mixture of water and a second organic solvent, to obtain the PUFA product,
A blood flow conduit, comprising: a first conduit portion defining a first portion of a lumen including a tip portion; and a second conduit portion including an extension defining a second portion of a lumen and an enlarged area at one end of the extension, wherein: the extension and enlarged area are formed of graft material; a cross-sectional area of the enlarged area is greater than a cross-sectional area of the extension; and the tip portion extending at least partially into the enlarged area in a manner designed to prevent contact between the tip portion and an inner wall of the enlarged area as blood flows through the lumen, wherein the tip portion does not extend into the extension. a first conduit portion defining a first portion of a lumen including a tip portion; and a second conduit portion including an extension defining a second portion of a lumen and an enlarged area at one end of the extension, wherein: the extension and enlarged area are formed of graft material; a cross-sectional area of the enlarged area is greater than a cross-sectional area of the extension; and the extension and enlarged area are formed of graft material; a cross-sectional area of the enlarged area is greater than a cross-sectional area of the extension; and the tip portion extending at least partially into the enlarged area in a manner designed to prevent contact between the tip portion and an inner wall of the enlarged area as blood flows through the lumen, wherein the tip portion does not extend into the extension.
A heat exchange system for vehicle comprising; a heat exchanger that exchanges heat between the air inside the vehicle and the air outside the vehicle, an air blower for absorption that intakes the air outside the vehicle inside the vehicle and feeds it to the heat exchanger, an air blower for discharge that exhausts an air after the heat exchange by the heat exchanger between the air inside the vehicle and the air outside the vehicle, which is fed by the air blower for absorption, to the outside of the vehicle, and a control device having an operation part calculating an energy recovered by the heat exchange in the heat exchanger and energies consumed by the air blower for absorption and the air blower for discharge and determining which of the energy recovered by the heat exchange and the energies consumed by the air blower for absorption and the air blower for discharge is greater, and a control part controlling at least one of the air blower for absorption and the air blower for discharge so that the energy consumed by the air blower for absorption and the air blower for discharge becomes small when the operation part determines that the energy consumed by the air blower for absorption and the air blower for discharge is greater than the energy recovered by the heat exchanger. a heat exchanger that exchanges heat between the air inside the vehicle and the air outside the vehicle, an air blower for absorption that intakes the air outside the vehicle inside the vehicle and feeds it to the heat exchanger, an air blower for discharge that exhausts an air after the heat exchange by the heat exchanger between the air inside the vehicle and the air outside the vehicle, which is fed by the air blower for absorption, to the outside of the vehicle, and a control device having an operation part calculating an energy recovered by the heat exchange in the heat exchanger and energies consumed by the air blower for absorption and the air blower for discharge and determining which of the energy recovered by the heat exchange and the energies consumed by the air blower for absorption and the air blower for discharge is greater, and a control part controlling at least one of the air blower for absorption and the air blower for discharge so that the energy consumed by the air blower for absorption and the air blower for discharge becomes small when the operation part determines that the energy consumed by the air blower for absorption and the air blower for discharge is greater than the energy recovered by the heat exchanger.
A layered material, comprising: a) a polymer layer comprising the reaction product of a precursor mixture comprising from 20 wt% to 70 wt% of a hydroxy-functional polyester resin and at least 5 wt% of a cross-linking agent; and b) an adhesive layer; wherein the precursor mixture is free of any hydroxy-functional acrylic resin, and wherein the polymer layer is a base layer of the layered material being arranged on the adhesive layer. a) a polymer layer comprising the reaction product of a precursor mixture comprising from 20 wt% to 70 wt% of a hydroxy-functional polyester resin and at least 5 wt% of a cross-linking agent; and b) an adhesive layer;
An immunogenic peptide comprising (i) an MHC class II restricted T-cell epitope of an antigen of a virus and (ii) a - 2-C or C-X - motif, wherein said motif is immediately adjacent to said epitope or is separated from said T-cell epitope by a linker of at most 7 amino acids, and wherein the amino acid sequence of said antigen does not comprise a - 2-C or C-X - motif sequence within a sequence of 11 amino acids N terminally or C terminally of said epitope in said antigen, for use in preventing or treating a viral infection by said virus.
A printing material cartridge to be installed in a printer having a printer controller, comprising: a container to contain a printing material; and a memory to enable exchange of information between the cartridge and the printer controller when the cartridge is installed in the printer; where the memory includes a first write once then read only memory with a first memory address and a second write once then read only memory with a second memory address, and a controller to control data storage and retrieval to and from the write once then read only memories, and where the memory controller controls exchange of information with the printer controller; the first memory address having information therein to prompt the printer controller to write a printer identifier to the second memory address. a container to contain a printing material; and a memory to enable exchange of information between the cartridge and the printer controller when the cartridge is installed in the printer; where the memory includes a first write once then read only memory with a first memory address and a second write once then read only memory with a second memory address, and a controller to control data storage and retrieval to and from the write once then read only memories, and where the memory controller controls exchange of information with the printer controller; the first memory address having information therein to prompt the printer controller to write a printer identifier to the second memory address.
Universal laser device for machining and/or assembling parts, comprising at least one connector to a light source, one collimation optics to create from said light source a parallel laser beam, one focusing optics (31, 41) to concentrate this laser beam in at least one impact zone (P1-P6) on a work surface and one work nozzle (32, 42) arranged to guide said laser beam and delimit said impact zone, characterized in that said device is designed in a modular way and comprises a basic optical module (20, 20') and various interchangeable dedicated optical modules (30, 40, 40') adapted for different applications and detachably assembled to said basic optical module by complementary quick-fastening means, said basic optical module (20, 20') comprising at least said connector and said collimation optics, each dedicated optical module (30, 40, 40') comprising at least one focusing optics (31, 41) and one work nozzle (32, 42), and in that said basic optical module (20, 20') and said dedicated optical modules (30, 40, 40') comprise closure means arranged to cooperate with said complementary quick-fastening means in order to be moved automatically between a closed position and an open position and vice-versa, respectively when said optical modules are attached and detached, to protect them when they are not attached.
A dispenser apparatus for dispensing a sheet of paper product from a roll thereof, said dispenser apparatus comprising: first and second roll supports spaced from one another for rotatably supporting opposed ends of a roll of sheet paper product and allowing rotation of said roll about an axis of rotation during dispensing of said sheet paper product, at least one of said first and second roll supports comprising a support arm structure including a support arm and a support member on said support arm and pivotally movable relative to said support arm for supporting a roll end; and a biasing structure exerting a bias on said support member to resist pivotal movement thereof, said support arm structure operable to reduce shock force created in the sheet paper product when a pulling force is applied to the sheet paper product; wherein said biasing structure is a spring and characterised in that said support member comprises a hub; a hub axis extending through a center of said hub corresponds to the axis of rotation of said roll; said hub is pivotally movable relative to said support arm about a pivot axis that is laterally offset from the hub axis; and said spring connects said support arm and said hub. first and second roll supports spaced from one another for rotatably supporting opposed ends of a roll of sheet paper product and allowing rotation of said roll about an axis of rotation during dispensing of said sheet paper product, at least one of said first and second roll supports comprising a support arm structure including a support arm and a support member on said support arm and pivotally movable relative to said support arm for supporting a roll end; and a biasing structure exerting a bias on said support member to resist pivotal movement thereof, said support arm structure operable to reduce shock force created in the sheet paper product when a pulling force is applied to the sheet paper product; wherein said biasing structure is a spring and characterised in that said support member comprises a hub; a hub axis extending through a center of said hub corresponds to the axis of rotation of said roll; said hub is pivotally movable relative to said support arm about a pivot axis that is laterally offset from the hub axis; and said spring connects said support arm and said hub.
Steering wheel unit comprising a steering wheel having a hub area and a rim encircling the hub area, and a driver airbag being located inside the hub area of the steering wheel as long as it is not deployed, said driver airbag comprising a front layer being located in front of the steering wheel and pointing towards the driver when the driver airbag is deployed and a back layer pointing towards the steering wheel when the driver airbag is deployed, said front layer and said back layer being circumferentially connected to each other by an edge connection, said front layer and back layer defining a chamber, and at least one ventilation hole in the back layer, characterized in that the driver airbag further comprises: - a line-shaped inner connection in form of an inner seam connecting the front layer and the back layer in a lower area of the driver airbag, said inner connection being spaced from the edge connection and encircling at least partially a sub-chamber of the chamber, such that the chamber comprises a main chamber and this sub-chamber being completely surrounded by the main chamber, wherein the inner connection has at least a first open end and a second open end, such that the sub-chamber is connected to the main chamber via an overflow opening extending between the first open end and the second open end of the inner connection, and in that the sub-chamber is in front of the rim at the six o'clock-position when the steering wheel is in its straight-forward-driving position and in that the at least one ventilation hole connects the sub-chamber with the environment. - a line-shaped inner connection in form of an inner seam connecting the front layer and the back layer in a lower area of the driver airbag, said inner connection being spaced from the edge connection and encircling at least partially a sub-chamber of the chamber, such that the chamber comprises a main chamber and this sub-chamber being completely surrounded by the main chamber,
A bed medium for a fluidized bed, which medium is configured to be introduced into a fluidized bed furnace for combusting or gasifying fuel comprising biomass material and/or coal material, and to be fluidized to form the fluidized bed within the furnace into which the fuel is to be fed, wherein: the bed medium is formed of artificially-produced spherical refractory particles having a chemical composition containing not less than 40% by weight of Al 2 O 3 and not more than 60% by weight of SiO 2; apparent porosity of the refractory particles is not more than 5%, such that a ratio by weight of agglomerated particles in the bed medium is not more than 20% after the bed medium has been subjected to a heat treatment test three times at a temperature of 900°C for 2 hours under coexistence with a biomass and/or coal material fuel. the bed medium is formed of artificially-produced spherical refractory particles having a chemical composition containing not less than 40% by weight of Al 2 O 3 and not more than 60% by weight of SiO 2; apparent porosity of the refractory particles is not more than 5%, such that a ratio by weight of agglomerated particles in the bed medium is not more than 20% after the bed medium has been subjected to a heat treatment test three times at a temperature of 900°C for 2 hours under coexistence with a biomass and/or coal material fuel.
A method for fabricating sensor chip assemblies, the method comprising the following sequence of steps: bonding a photodetector wafer and an optics wafer to each other, wherein the optics wafer includes arrays of microlenses; forming photodetectors on the photodetector wafer; and thereafter bonding a circuit wafer to the photodetector wafer that is bonded to the optics wafer. bonding a photodetector wafer and an optics wafer to each other, wherein the optics wafer includes arrays of microlenses; forming photodetectors on the photodetector wafer; and thereafter bonding a circuit wafer to the photodetector wafer that is bonded to the optics wafer.
A container comprising: a lower portion having a bottom and plurality of walls defining an interior space; a cover attached to one of said walls via a hinge and configured to move between a closed position and a fully open position, wherein in said closed position, access to the interior space is prohibited, and in said fully open position, access to the interior space is permitted and the cover is at an angle (α) of greater than or equal to 90 degrees with respect to the bottom; wherein the cover includes at least one stop block adjacent the hinge and configured to engage a lip of the wall to which the cover is hinged and hold the cover at an intermediate open position, wherein access to the interior space is permitted and the cover is at an angle (β) of less than 90 degrees with respect to the bottom; and characterized in that the cover further includes a secondary stop surface adjacent the hinge and configured to engage a holding block on the lower portion and both hold the cover in a fully open position and prevent the cover from falling to a fully open position of greater than 180 degrees. a lower portion having a bottom and plurality of walls defining an interior space; a cover attached to one of said walls via a hinge and configured to move between a closed position and a fully open position, wherein in said closed position, access to the interior space is prohibited, and in said fully open position, access to the interior space is permitted and the cover is at an angle (α) of greater than or equal to 90 degrees with respect to the bottom; wherein the cover includes at least one stop block adjacent the hinge and configured to engage a lip of the wall to which the cover is hinged and hold the cover at an intermediate open position, wherein access to the interior space is permitted and the cover is at an angle (β) of less than 90 degrees with respect to the bottom; and characterized in that the cover further includes a secondary stop surface adjacent the hinge and configured to engage a holding block on the lower portion and both hold the cover in a fully open position and prevent the cover from falling to a fully open position of greater than 180 degrees.