mhurhangee/ep-ind-claims huggingface dataset:
A production process for a water-absorbing agent containing water-absorbent resin particles having an internal cross-linked structure obtained by polymerizing a water-soluble unsaturated monomer, the production process comprising the steps of: forming non-surface-treated water-absorbent resin particles having an internal cross-linked structure obtained by polymerizing a water-soluble unsaturated monomer in the presence of a covalent bonding cross-linking agent; mixing surface-treated water-absorbent resin fine particles having a size so as to pass through a sieve having a mesh opening of 300 μm with the non-surface-treated water-absorbent resin particles; (i) heating the non-surface-treated water-absorbent resin particles having the surface-treated water-absorbent resin fine particles contained therein; and (ii) mixing the non-surface-treated water-absorbent resin particles having the surface-treated water-absorbent resin fine particles contained therein with a surface cross-linking agent and then heating a resultant mixture, so as to cross-link vicinities of surfaces of the water-absorbent resin particles. forming non-surface-treated water-absorbent resin particles having an internal cross-linked structure obtained by polymerizing a water-soluble unsaturated monomer in the presence of a covalent bonding cross-linking agent; mixing surface-treated water-absorbent resin fine particles having a size so as to pass through a sieve having a mesh opening of 300 μm with the non-surface-treated water-absorbent resin particles; (i) heating the non-surface-treated water-absorbent resin particles having the surface-treated water-absorbent resin fine particles contained therein; and (ii) mixing the non-surface-treated water-absorbent resin particles having the surface-treated water-absorbent resin fine particles contained therein with a surface cross-linking agent and then heating a resultant mixture, so as to cross-link vicinities of surfaces of the water-absorbent resin particles.
A nail polish liquid, a mascara liquid, or an eyeliner liquid comprising a polylactic-acid-containing aqueous dispersion comprising, the dispersion comprising a polylactic acid, at least one plasticizer selected from the group consisting of dimethyl adipate, diethyl adipate, dipropyl adipate, diisopropyl adipate, dibutyl adipate, diallyl adipate, bis(2-butoxyethyl) adipate, bis(2-methoxyethyl) adipate, dimethyl succinate, dimethyl glutarate, diethyl sebacate, diisopropyl sebacate, and mixtures thereof, at least one dispersion stabilizer selected from the group consisting of cationic polymers, anionic polymers, polyvinyl alcohols, and non-ionic surfactants, and water. a polylactic acid, at least one plasticizer selected from the group consisting of dimethyl adipate, diethyl adipate, dipropyl adipate, diisopropyl adipate, dibutyl adipate, diallyl adipate, bis(2-butoxyethyl) adipate, bis(2-methoxyethyl) adipate, dimethyl succinate, dimethyl glutarate, diethyl sebacate, diisopropyl sebacate, and mixtures thereof, at least one dispersion stabilizer selected from the group consisting of cationic polymers, anionic polymers, polyvinyl alcohols, and non-ionic surfactants, and water.
A panel audio loudspeaker, comprising: a panel; an actuator attached to a surface of the panel and configured to cause vibration of the panel, the actuator comprising a magnetic coil in thermal communication with the panel; a plurality of electrical sensors (312, 314) electrically coupled to the magnetic coil and configured to output time-varying electrical data for the magnetic coil; and an electronic control module in communication with the magnetic coil and the plurality of electrical sensors, wherein the electronic control module is configured to perform operations comprising: providing a current to the magnetic coil; receiving, from the plurality of electrical sensors, the time-varying electrical data (402, 404) for the magnetic coil; based on the time-varying electrical data for the magnetic coil, determining an electrical energy provided to the magnetic coil between a first time and a second time; accessing a thermal model (352, 530) of the panel; and based on the electrical energy provided to the magnetic coil, and the thermal model of the panel, determining a change in a panel temperature between the first time and the second time. a panel; an actuator attached to a surface of the panel and configured to cause vibration of the panel, the actuator comprising a magnetic coil in thermal communication with the panel; a plurality of electrical sensors (312, 314) electrically coupled to the magnetic coil and configured to output time-varying electrical data for the magnetic coil; and an electronic control module in communication with the magnetic coil and the plurality of electrical sensors, wherein the electronic control module is configured to perform operations comprising: providing a current to the magnetic coil; receiving, from the plurality of electrical sensors, the time-varying electrical data (402, 404) for the magnetic coil; based on the time-varying electrical data for the magnetic coil, determining an electrical energy provided to the magnetic coil between a first time and a second time; accessing a thermal model (352, 530) of the panel; and based on the electrical energy provided to the magnetic coil, and the thermal model of the panel, determining a change in a panel temperature between the first time and the second time. providing a current to the magnetic coil; receiving, from the plurality of electrical sensors, the time-varying electrical data (402, 404) for the magnetic coil; based on the time-varying electrical data for the magnetic coil, determining an electrical energy provided to the magnetic coil between a first time and a second time; accessing a thermal model (352, 530) of the panel; and based on the electrical energy provided to the magnetic coil, and the thermal model of the panel, determining a change in a panel temperature between the first time and the second time.
Device for testing the tightness of an electric machine stator core comprising a movable support, insertable in an air gap between an electric generator stator core and a rotor, and a test instrument carried by the movable support and locally placeable to locally test defined zones of the generator core, said support being arranged to place the test instrument over at least half of the gap axial length, said support comprising a guide, circumferentially connectable to one end of the generator along at least a portion of its gap, a cart movable along the guide, and an extendable arm that is connected to the cart to reach into the air gap and carries the test instrument, characterized in that the test instrument is arranged to stress the stator core iron sheets to make them vibrate and to detect the vibrations by detecting a signal generated by the vibrating stator core iron sheets and in that the arm connects to a head and said head carries a coil (23, 24) arranged to inject a high frequency magnetic flux into a packet of the stator core, so as to induce the vibrations.
A method of providing a vertical interconnect between a first and a second thin-film microelectronic device, said method comprising the steps of: - providing a vertical interconnect area (100, 201, 202), said vertical interconnect area being an area of overlap of a stack of a first organic electrically conducting area, an organic electrically insulating area over the first organic electrically conducting area and a second organic electrically conducting area over the organic electrically insulating area, thus forming a stacked layer structure, said first organic electrically conducting area being electrically connected to a terminal of said first microelectronic device, said second organic electrically conducting area being electrically connected to a terminal of said second microelectronic device, and - notching the vertical interconnect area (100, 201, 202) using a tool tip such that the notch penetrates into the first organic electrically conducting area, thereby forming the vertical interconnect. - providing a vertical interconnect area (100, 201, 202), said vertical interconnect area being an area of overlap of a stack of a first organic electrically conducting area, an organic electrically insulating area over the first organic electrically conducting area and a second organic electrically conducting area over the organic electrically insulating area, thus forming a stacked layer structure, said first organic electrically conducting area being electrically connected to a terminal of said first microelectronic device, said second organic electrically conducting area being electrically connected to a terminal of said second microelectronic device, and - notching the vertical interconnect area (100, 201, 202) using a tool tip such that the notch penetrates into the first organic electrically conducting area, thereby forming the vertical interconnect.
Capsule for the production of coffee, in a beverage production machine comprising a capsule holder with relief and recessed elements; said capsule comprising: - an inverted cup-shaped body forming a chamber containing ground coffee, a bottom injection wall, a sidewall and a flange-like rim; - a delivery wall which is sealed to the body and comprising a relatively flat outer surface extending from the central axis of the capsule to the flange-like rim of the body, wherein it contains roast and ground coffee having an average particle size (D 4,3) comprised between 250 and 600 microns, characterized in that the delivery wall comprises at least one portion of porous material capable of providing a backpressure that is greater than the backpressure of the ground coffee in the chamber, in that the delivery wall forms an insert comprising a three-dimensional portion of porous material, in that the portion of porous material provides a back-pressure of at least 2 bars, preferably at least 3 bars, in that the portion of porous material of the insert has a ratio of transversal width to depth varying of from 100:1 to 1:30 and the insert has a minimal thickness comprised between 0.2 and 5 mm. - an inverted cup-shaped body forming a chamber containing ground coffee, a bottom injection wall, a sidewall and a flange-like rim; - a delivery wall which is sealed to the body and comprising a relatively flat outer surface extending from the central axis of the capsule to the flange-like rim of the body,
An image forming apparatus comprising: a main frame; a medium feeding unit supported by the main frame and arranged to supply a print medium; an image forming unit (300, 400, 450) supported by the main frame and arranged to form an image on the print medium supplied by the medium feeding unit, the image forming unit extending in a lengthwise direction between a first and second side of the main frame; a fixing unit supported by the main frame and arranged to fix an image formed by the image forming unit on the print medium, the fixing unit extending in a lengthwise direction between a first and second side of the main frame; characterised by: a guide member installed in a path along which air moves between the image forming unit and the fixing unit along a lengthwise direction of at least one of the image forming unit and the fixing unit so that air inhaled through an inhaling unit formed at the first side of the main frame can be exhausted to an exhaust unit formed at the second side of the main frame, the guide member arranged to guide a moving direction of the air so that the air inhaled through the inhaling unit moves towards the image forming unit along the path. a main frame; a medium feeding unit supported by the main frame and arranged to supply a print medium; an image forming unit (300, 400, 450) supported by the main frame and arranged to form an image on the print medium supplied by the medium feeding unit, the image forming unit extending in a lengthwise direction between a first and second side of the main frame; a fixing unit supported by the main frame and arranged to fix an image formed by the image forming unit on the print medium, the fixing unit extending in a lengthwise direction between a first and second side of the main frame; characterised by: a guide member installed in a path along which air moves between the image forming unit and the fixing unit along a lengthwise direction of at least one of the image forming unit and the fixing unit so that air inhaled through an inhaling unit formed at the first side of the main frame can be exhausted to an exhaust unit formed at the second side of the main frame, the guide member arranged to guide a moving direction of the air so that the air inhaled through the inhaling unit moves towards the image forming unit along the path.
A dual-stage parabolic concentrator based solar concentrator and absorber system, the system comprising: a reflector subsystem with two parabolic mirrored reflectors, namely - a larger primary reflector and a smaller secondary reflector, wherein apertures of the two reflectors face each other and focal points and axes of the primary reflector and the secondary reflector coincide with each other, characterized in that multiple reflections of sunlight hitting the primary reflector, between the primary reflector and the secondary reflector are enabled, each successive reflection resulting in the sunlight getting concentrated in a narrow region finally resulting in a highly coherent and intense sunlight in a narrow region around the coinciding focal points and the coinciding axes of the two reflectors (A and B), the system further comprising an absorber subsystem comprising a plurality of absorber tubes /cavities placed on non-reflecting side (A') of the primary reflector either alone or in combination with non-reflecting side (B') of the secondary reflector, wherein the tubes/cavities are configured to circulate heat transfer fluid and a thermal insulation subsystem prevents/minimizes thermal loss. a reflector subsystem with two parabolic mirrored reflectors, namely - a larger primary reflector and a smaller secondary reflector, wherein apertures of the two reflectors face each other and focal points and axes of the primary reflector and the secondary reflector coincide with each other, characterized in that multiple reflections of sunlight hitting the primary reflector, between the primary reflector and the secondary reflector are enabled, each successive reflection resulting in the sunlight getting concentrated in a narrow region finally resulting in a highly coherent and intense sunlight in a narrow region around the coinciding focal points and the coinciding axes of the two reflectors (A and B), the system further comprising an absorber subsystem comprising a plurality of absorber tubes /cavities placed on non-reflecting side (A') of the primary reflector either alone or in combination with non-reflecting side (B') of the secondary reflector, wherein the tubes/cavities are configured to circulate heat transfer fluid and a thermal insulation subsystem prevents/minimizes thermal loss.
A dialysis fluid treatment device comprising: a first cell comprising an electrodialysis unit having a cathode and two opposing anodes (124, 126); and a second cell comprising a urease compartment and a sorbent compartment and in fluid communication with the first cell. a first cell comprising an electrodialysis unit having a cathode and two opposing anodes (124, 126); and a second cell comprising a urease compartment and a sorbent compartment and in fluid communication with the first cell.
A metallocene catalyst compound represented by Chemical Formula 2 below: in Chemical Formula 2, R 1 to R 5 are each independently at least one selected from the group consisting of hydrogen, a C1-C10 alkyl group, an aryl group, and a C1-C10-alkyl-group-substituted silicon (Si); R 6 to R 15 are each independently at least one selected from the group consisting of hydrogen, halogen, and a C1-C10 alkyl group; R 16 is absent or is selected from the group consisting of hydrogen, a C1-C10 alkyl group, a C1-C10-alkyl-group-substituted silicon (Si), and a hetero atom; M is titanium (Ti), zirconium (Zr) or hafnium (Hf); and X is halogen, a C1-C10 hydrocarbon group, or a hetero atom including a C1-C10 hydrocarbon. in Chemical Formula 2, R 1 to R 5 are each independently at least one selected from the group consisting of hydrogen, a C1-C10 alkyl group, an aryl group, and a C1-C10-alkyl-group-substituted silicon (Si); R 6 to R 15 are each independently at least one selected from the group consisting of hydrogen, halogen, and a C1-C10 alkyl group; R 16 is absent or is selected from the group consisting of hydrogen, a C1-C10 alkyl group, a C1-C10-alkyl-group-substituted silicon (Si), and a hetero atom; M is titanium (Ti), zirconium (Zr) or hafnium (Hf); and X is halogen, a C1-C10 hydrocarbon group, or a hetero atom including a C1-C10 hydrocarbon.
Method for the manufacture of purified 68 Ge material for radiopharmaceutical purposes, characterized by (a) adjusting a 68 Ge-containing solution containing organic and metallic impurities to a HCI concentration of 6.5 to 12 M in order to convert the 68 Ge contained in the solution, to a 68 GeCl 4 -containing material; (b) loading the solution comprising the 68 GeCl 4 -containing material obtained in step (a) to a resin matrix, wherein said resin matrix is a hydrophilic, macroporous, acrylic ester polymeric resin; (c) eluting said resin matrix with water in order to hydrolyze the 68 GeCl 4 -containing material and to release 68 Ge in germanic acid form [ 68 Ge 4] from the 68 GeCl 4 -containing material which was adsorbed to the resin matrix in step (b); (d) adjusting an eluate solution containing 68 Ge obtained in step (c) to an HCI concentration < 1M; and (e) loading said adjusted eluate solution of step (d), containing 68 Ge in the form of 68 Ge 4 to a cation exchange resin, wherein metal ion impurities are essentially quantitatively retained whereas the final 68 Ge-containing product being essentially free of organic and metallic impurities, elutes through. (a) adjusting a 68 Ge-containing solution containing organic and metallic impurities to a HCI concentration of 6.5 to 12 M in order to convert the 68 Ge contained in the solution, to a 68 GeCl 4 -containing material; (b) loading the solution comprising the 68 GeCl 4 -containing material obtained in step (a) to a resin matrix, wherein said resin matrix is a hydrophilic, macroporous, acrylic ester polymeric resin; (c) eluting said resin matrix with water in order to hydrolyze the 68 GeCl 4 -containing material and to release 68 Ge in germanic acid form [ 68 Ge 4] from the 68 GeCl 4 -containing material which was adsorbed to the resin matrix in step (b); (d) adjusting an eluate solution containing 68 Ge obtained in step (c) to an HCI concentration < 1M; and (e) loading said adjusted eluate solution of step (d), containing 68 Ge in the form of 68 Ge 4 to a cation exchange resin, wherein metal ion impurities are essentially quantitatively retained whereas the final 68 Ge-containing product being essentially free of organic and metallic impurities, elutes through.
Method for preparation of compound of formula; the method comprises three consecutive steps step (StepS1), step (StepS2) and step (StepS3); step (StepS1) comprises a reaction (ReacR1); reaction (ReacS1) is a reaction of compound of formula with compound of formula; wherein X1 and X2 are identical or different and independently from each other selected from the group consisting of F, Cl, Br, J, C 1-6 perfluoroalkyl, and tolyl; R n+ is selected from the group consisting of H +, Li +, Na +, K +, Mg 2 +, Ca 2 +, Zn 2 +, Cu 2 +, Al 3 +, Ti 3 +, Fe 2 +, Fe 3 +, B 3 +, [N R23] +, and [P R23] +; R20, R21, R22 and R23 are identical or different and independently from each other selected from the group consisting of H, C 1-8 alkyl, C 5-6 cycloalkyl, phenyl, benzyl, vinyl and allyl; n is 1, 2 or 3; the reaction (ReacS1) is done in a continuous way; in step (StepS1) a mixture of compound of formula and compound of formula passes through a device (DevS1), device (DevS1) is a continuously working device, in device (DevS1) the mixture of compound of formula and compound of formula is heated to a temperature (TempS1), temperature (TempS1) is of from 180 to 300°C, where the reaction (ReacS1) takes place, resulting in a reaction mixture, in step (StepS2) the reaction mixture from device (DevS1) passes through a device (DevS2), device (DevS2) is a device for cooling the reaction mixture; in step (StepS3) the reaction mixture from device (DevS2) passes through a device (DevS3), device (DevS3) is a device for back pressure regulation; the reaction mixture is cooled to a temperature (TempS2) by the effects on the reaction mixture of device (DevS2) or of device (DevS3) or of a combination of device (DevS2) and device (DevS3), temperature (TempS2) is of from 0 to 150°C. X1 and X2 are identical or different and independently from each other selected from the group consisting of F, Cl, Br, J, C 1-6 perfluoroalkyl, and tolyl; R n+ is selected from the group consisting of H +, Li +, Na +, K +, Mg 2 +, Ca 2 +, Zn 2 +, Cu 2 +, Al 3 +, Ti 3 +, Fe 2 +, Fe 3 +, B 3 +, [N R23] +, and [P R23] +; R20, R21, R22 and R23 are identical or different and independently from each other selected from the group consisting of H, C 1-8 alkyl, C 5-6 cycloalkyl, phenyl, benzyl, vinyl and allyl; n is 1, 2 or 3;
A system for setting at least one sealing member of an item of oilfield equipment, the system comprising: a sliding mandrel; a sliding sleeve; a stationary housing positioned radially between the sliding mandrel and the sliding sleeve, the stationary housing radially overlying the sliding mandrel, and the sliding sleeve radially overlying the stationary housing; and at least one dog, wherein axial displacement of the sliding mandrel relative to the stationary housing causes radial displacement of the at least one dog through a slot in the stationary housing, wherein the radial displacement of the at least one dog causes axial displacement of the sliding sleeve relative to the stationary housing, and sets the at least one sealing member. a sliding mandrel; a sliding sleeve; a stationary housing positioned radially between the sliding mandrel and the sliding sleeve, the stationary housing radially overlying the sliding mandrel, and the sliding sleeve radially overlying the stationary housing; and at least one dog, wherein axial displacement of the sliding mandrel relative to the stationary housing causes radial displacement of the at least one dog through a slot in the stationary housing, wherein the radial displacement of the at least one dog causes axial displacement of the sliding sleeve relative to the stationary housing, and sets the at least one sealing member.