mhurhangee/ep-ind-claims huggingface dataset:
A docking station (100, 1100, 1200) comprising: a support structure (130, 1130, 1230) for holding a mobile terminal having an internal speaker to sustain the posture of the mobile terminal; and a body (110, 1110, 1210) for supporting the support structure (130, 1130, 1230), and for physically contacting the speaker of the mobile terminal placed on the support structure (130, 1130, 1230) to increase the volume of sound output from the speaker, wherein the body (110, 1110, 1210) comprises a collecting hole (113, 1113) for contacting the speaker to collect sound waves, and a guide hole (115, 1115) that extends from the collecting hole (113, 1113) through the inside of the body (110, 1110, 1210) to the outside along an extension direction, is divided into two branches within the inside of the body (110, 1110, 1210) to guide the collected sound waves along different paths that extend to different surfaces of the body (110, 1110, 1210), and has a horn shape whose cross section increases along the extension direction. a support structure (130, 1130, 1230) for holding a mobile terminal having an internal speaker to sustain the posture of the mobile terminal; and a body (110, 1110, 1210) for supporting the support structure (130, 1130, 1230), and for physically contacting the speaker of the mobile terminal placed on the support structure (130, 1130, 1230) to increase the volume of sound output from the speaker, wherein the body (110, 1110, 1210) comprises a collecting hole (113, 1113) for contacting the speaker to collect sound waves, and a guide hole (115, 1115) that extends from the collecting hole (113, 1113) through the inside of the body (110, 1110, 1210) to the outside along an extension direction, is divided into two branches within the inside of the body (110, 1110, 1210) to guide the collected sound waves along different paths that extend to different surfaces of the body (110, 1110, 1210), and has a horn shape whose cross section increases along the extension direction.
Fin deployment mechanism comprising a base unit, deployable fins movably arranged on the base unit and, in the retracted position, bearing against the base unit which is bevelled, as well as a gas-generating device, wherein the fins bear with a bottom surface against the outer radius of the base unit, and each fin is fitted to or constructed in a unit with a fin axle, mounted in a mounting hole on the base unit and in a mounting hole(10 on a base plate and in that at least one gas duct (6, 7) is arranged in the base unit in the longitudinal direction of the base unit so as to conduct pressurized gas generated by the gas-generating device to the surface of the fins which surface bears in the retracted position against the base unit, in order to create a force which acts on the fins for deployment of the same.
Li-5 battery, comprising a) a cathode comprising an electrically conductive carbon material and an electrochemically active cathode material which comprises sulphur or consists thereof b) an anode comprising a conducting substrate which is coated at least in regions with silicon and/or tin; and c) a lithium-containing liquid electrolyte, gel electrolyte and/or solid electrolyte disposed between cathode and anode; characterised in that the cathode at least partially comprises fibrillar plastic material. a) a cathode comprising an electrically conductive carbon material and an electrochemically active cathode material which comprises sulphur or consists thereof b) an anode comprising a conducting substrate which is coated at least in regions with silicon and/or tin; and c) a lithium-containing liquid electrolyte, gel electrolyte and/or solid electrolyte disposed between cathode and anode;
A manufacturing method for a seawater-resistant stainless clad steel comprising: a cladding material made of stainless steel having a chemical composition consisting of, by mass%, C: 0.03% or less, Si: 1.50% or less, Mn: 2.0% or less, P: 0.04% or less, S: 0.03% or less, Cu: 2.0% or less, Ni: 17.0% to 25.0%, Cr: 19.0% to 26.0%, Mo: 3.0% to 6.0%, and N: 0.10% to 0.35%, optionally B: 0.0010% to 0.0050%, and the remainder being Fe and incidental impurities, and having a pitting index, which is represented by Cr[mass%] + 3.3Mo[mass%] + 16N[mass%], of 35.0 or more and a microstructure in a surface portion thereof including a σ phase, which σ phase, by area ratio, is less than 2.0%, the method comprising the steps of: performing a mechanical treatment from at least one of grindstone polishing and belt polishing and performing an electrolytic treatment in acid solutions or in neutral salt solutions, and/or pickling treatment in addition to the mechanical treatment to manufacture the stainless clad steel having dynamic friction coefficients in the rolling direction and in a direction at a right angle to the rolling direction determined in accordance with JIS K 7125 both 0.05 or less. a cladding material made of stainless steel having a chemical composition consisting of, by mass%, C: 0.03% or less, Si: 1.50% or less, Mn: 2.0% or less, P: 0.04% or less, S: 0.03% or less, Cu: 2.0% or less, Ni: 17.0% to 25.0%, Cr: 19.0% to 26.0%, Mo: 3.0% to 6.0%, and N: 0.10% to 0.35%, optionally B: 0.0010% to 0.0050%, C: 0.03% or less, Si: 1.50% or less, Mn: 2.0% or less, P: 0.04% or less, S: 0.03% or less, Cu: 2.0% or less, Ni: 17.0% to 25.0%, Cr: 19.0% to 26.0%, Mo: 3.0% to 6.0%, and N: 0.10% to 0.35%, optionally B: 0.0010% to 0.0050%, and the remainder being Fe and incidental impurities, and having a pitting index, which is represented by Cr[mass%] + 3.3Mo[mass%] + 16N[mass%], of 35.0 or more and a microstructure in a surface portion thereof including a σ phase, which σ phase, by area ratio, is less than 2.0%, a pitting index, which is represented by Cr[mass%] + 3.3Mo[mass%] + 16N[mass%], of 35.0 or more and a microstructure in a surface portion thereof including a σ phase, which σ phase, by area ratio, is less than 2.0%, the method comprising the steps of: performing a mechanical treatment from at least one of grindstone polishing and belt polishing and performing an electrolytic treatment in acid solutions or in neutral salt solutions, and/or pickling treatment in addition to the mechanical treatment to manufacture the stainless clad steel having dynamic friction coefficients in the rolling direction and in a direction at a right angle to the rolling direction determined in accordance with JIS K 7125 both 0.05 or less.
Use of a stabilizer composition for increasing Open Time of an aqueous coating composition, wherein the stabilizer composition comprises an AB type polymer, wherein "B" comprises any type of water-soluble/water dispersible oligomer or polymer selected from the group consisting of polyethylene glycol, polyacetalpolyether (PAPE), acrylate, acrylamide and polyethylene oxide; and wherein "A", covalently connected to "B", comprises a structure that has the following formula: wherein R comprises a C 1 to C 30 hydrocarbon, which is linear or branched, aliphatic or aromatic or combinations thereof: R 1 comprises H, CH 3, or C2H 5; R 2 comprises CH 2 O, CO 2, CONH, or CH 2 and wherein R 2 can be the same or different; R 3 comprises H or OH; n is an integer from 1 to 100; and m is either 0 or 1. R comprises a C 1 to C 30 hydrocarbon, which is linear or branched, aliphatic or aromatic or combinations thereof: R 1 comprises H, CH 3, or C2H 5; R 2 comprises CH 2 O, CO 2, CONH, or CH 2 and wherein R 2 can be the same or different; R 3 comprises H or OH; n is an integer from 1 to 100; and m is either 0 or 1.
A method for preparing a cyclopeptide, comprising the following steps: providing compounds represented by the following formulas (II-1) or (II'-1) and (II-2), R c -NH-R 1 -COOH (II-2) wherein, each of R a and R b independently is alkyl, cycloalkyl, aryl or heteroaryl; R c is a protection group; G is H or OC(CH 3) 3; and R 1 is in which each of R 2 and R 3 independently is H or C 1-6 alkyl; X is O, S, CH 2 or N-R 4, in which R 4 is H, C 1-6 alkyl, (CH 2 CH 2 O) n H, ―C(=O)-C 1-10 alkyl, or C(=O)(C 2 H 4) 2 C(=O)O(C 2 H 4 O) n H,in which n = 1-3; performing a reaction between the compounds of formulas (II-1) or (II'-1) and (II-2), to obtain a compound represented by the following formula (II-3) and (II' -3), respectively, performing a reaction between the compound of formula (II-3) or (II'-3) and a compound represented by the following formula (II-4) or (II'-4), respectively, to obtain a compound represented by the following formula (II-5), and (II'-5), respectively. each of R d and R e independently is a protection group; and performing a cyclization reaction of the compound of formula (II-5) or (II'-5) with a catalyst, to obtain a compound represented by the following formula or (I'), respectively, wherein G' is H or OH; the catalyst is MoO 2 Cl 2, V OCl 2, V (OAc) 2, V (O 2 CCF 3) 2, Nb Cl 2, MoO 2 (acac) 2, V (OTs) 2, VO(OTf) 2 or V (NTf 2) 2. providing compounds represented by the following formulas (II-1) or (II'-1) and (II-2), R c -NH-R 1 -COOH (II-2) wherein, each of R a and R b independently is alkyl, cycloalkyl, aryl or heteroaryl; R c is a protection group; G is H or OC(CH 3) 3; and R 1 is in which each of R 2 and R 3 independently is H or C 1-6 alkyl; X is O, S, CH 2 or N-R 4, in which R 4 is H, C 1-6 alkyl, (CH 2 CH 2 O) n H, ―C(=O)-C 1-10 alkyl, or C(=O)(C 2 H 4) 2 C(=O)O(C 2 H 4 O) n H,in which n = 1-3; wherein, each of R a and R b independently is alkyl, cycloalkyl, aryl or heteroaryl; R c is a protection group; G is H or OC(CH 3) 3; and R 1 is in which each of R 2 and R 3 independently is H or C 1-6 alkyl; X is O, S, CH 2 or N-R 4, in which R 4 is H, C 1-6 alkyl, (CH 2 CH 2 O) n H, ―C(=O)-C 1-10 alkyl, or C(=O)(C 2 H 4) 2 C(=O)O(C 2 H 4 O) n H,in which n = 1-3; performing a reaction between the compounds of formulas (II-1) or (II'-1) and (II-2), to obtain a compound represented by the following formula (II-3) and (II' -3), respectively, performing a reaction between the compound of formula (II-3) or (II'-3) and a compound represented by the following formula (II-4) or (II'-4), respectively, to obtain a compound represented by the following formula (II-5), and (II'-5), respectively. each of R d and R e independently is a protection group; and performing a cyclization reaction of the compound of formula (II-5) or (II'-5) with a catalyst, to obtain a compound represented by the following formula or (I'), respectively, wherein G' is H or OH; the catalyst is MoO 2 Cl 2, V OCl 2, V (OAc) 2, V (O 2 CCF 3) 2, Nb Cl 2, MoO 2 (acac) 2, V (OTs) 2, VO(OTf) 2 or V (NTf 2) 2. wherein G' is H or OH; the catalyst is MoO 2 Cl 2, V OCl 2, V (OAc) 2, V (O 2 CCF 3) 2, Nb Cl 2, MoO 2 (acac) 2, V (OTs) 2, VO(OTf) 2 or V (NTf 2) 2.
Method for operating a power grid, in particular a power grid of a watercraft, wherein the power grid is connected to a battery device for the intermediate storage of energy, wherein the battery device has at least two component-batteries, and in that at least a first component-battery is operated in a charging mode in which the component-battery can be charged in order to absorb excess energy from the power grid while at least a second component-battery is operated in a discharging mode in which the component-battery can be discharged in order to output additional energy into the power grid, characterized in that the first or the second component-battery goes into a standby mode if the state of charge of the first or second component-battery reaches a predefined standby state of charge which is in the range from 50% to 75%.
An ironing die for a manufacturing process of aluminum alloy beverage cans by « Drawing-Ironing », characterized in that it has a rounded intersection with a radius from 0.5 to 4.6 mm between infeed surface and land, a rounded intersection with a radius below 1.2 mm between land and exit surface, a surface in the working area having a roughness Ra below 0.03 μm and a width of the land below 0.38 mm.
A method of generating geophysical data using at least one airgun source, the method comprising: generating a geophysical wavefield with a varying signature using at least one airgun source; characterised in that the signature of the geophysical wavefield is varied in a periodic pattern by using a deterministic variation of a signature of the at least one airgun source; and using a deterministic variation of the signature of the at least one airgun source comprises varying: the time at which the geophysical wavefield is generated by the at least one airgun source; and/or the polarity of the at least one airgun source; and/or the phase of the at least one airgun source; and/or the amplitude of the at least one airgun source; and the periodic pattern is such that, when the geophysical wavefield is recorded and the recorded geophysical data is transformed into another domain, at least some of the recorded geophysical data is shifted to a location in the other domain that is different to the location in the other domain where the at least some of the geophysical data would have been had the varying signature not been used. generating a geophysical wavefield with a varying signature using at least one airgun source; characterised in that the signature of the geophysical wavefield is varied in a periodic pattern by using a deterministic variation of a signature of the at least one airgun source; and using a deterministic variation of the signature of the at least one airgun source comprises varying: the time at which the geophysical wavefield is generated by the at least one airgun source; and/or the polarity of the at least one airgun source; and/or the phase of the at least one airgun source; and/or the amplitude of the at least one airgun source; the time at which the geophysical wavefield is generated by the at least one airgun source; and/or the polarity of the at least one airgun source; and/or the phase of the at least one airgun source; and/or the amplitude of the at least one airgun source; and the periodic pattern is such that, when the geophysical wavefield is recorded and the recorded geophysical data is transformed into another domain, at least some of the recorded geophysical data is shifted to a location in the other domain that is different to the location in the other domain where the at least some of the geophysical data would have been had the varying signature not been used.
A method performed in a machine-to-machine or internet of things, M2M/IoT, system by a first service layer entity implemented on an apparatus of a communications network, the method comprising: receiving, from a computing device, a data continuity service request, wherein the data continuity service request comprises information associated with the computing device; characterized by determining, based on the data continuity service request, to configure a second service layer entity for performing a data operation on data associated with the computing device; configuring the second service layer entity for performing a data operation on data associated with the computing device; receiving, from the computing device, a request to perform a data operation, wherein the request to perform the data operation identifies a virtual resource associated with the first service layer entity; and retargeting, to the second service layer entity, a request to perform a data operation on at least a portion of the data. receiving, from a computing device, a data continuity service request, wherein the data continuity service request comprises information associated with the computing device; characterized by determining, based on the data continuity service request, to configure a second service layer entity for performing a data operation on data associated with the computing device; configuring the second service layer entity for performing a data operation on data associated with the computing device; receiving, from the computing device, a request to perform a data operation, wherein the request to perform the data operation identifies a virtual resource associated with the first service layer entity; and retargeting, to the second service layer entity, a request to perform a data operation on at least a portion of the data.
An ink composition comprising: a metal salt; an optional solvent; and a stable component that is stable in the ink composition until treated, wherein, upon treatment, the component forms a compound that reduces the metal salt to form metal, wherein the stable component is an initiator selected from the group consisting of hydrogen peroxide, 2,2'-Azobis-[2-methyl-propanimidamide] dihydrochloride, azobisisobutyronitrile, benzoyl peroxide, and combinations thereof. a metal salt; an optional solvent; and a stable component that is stable in the ink composition until treated, wherein, upon treatment, the component forms a compound that reduces the metal salt to form metal, wherein the stable component is an initiator selected from the group consisting of hydrogen peroxide, 2,2'-Azobis-[2-methyl-propanimidamide] dihydrochloride, azobisisobutyronitrile, benzoyl peroxide, and combinations thereof.
An inkjet printer comprising: an inkjet head configured to eject ink; an ink warming block that includes an ink flow path portion and that is configured to heat the ink inside the ink flow path portion, a pressure control unit configured to supply ink from an ink storage unit to the ink warming block while adjusting the flow rate of the ink, the pressure control unit being arranged above the ink warming block, so that the ink is guided from the ink storage unit to the pressure control unit by the water head difference (h) between the height of the liquid level of the ink in the ink storage unit and the height of the liquid level of the ink at the inlet of the pressure control unit; and a protrusion that protrudes from the inkjet head and is configured to guide the ink to the inkjet head through a protruding flow path that is formed in the protrusion; wherein the ink flow path portion is configured to supply the ink to the protruding flow path of the protrusion; and a conducting portion that is formed in the ink warming block itself or separately from the ink warming block and through which heat from the ink warming block is conducted is disposed outside of and adjacently to the protrusion, the conducting portion being configured to heat the protrusion with the conducted heat. an inkjet head configured to eject ink; an ink warming block that includes an ink flow path portion and that is configured to heat the ink inside the ink flow path portion, a pressure control unit configured to supply ink from an ink storage unit to the ink warming block while adjusting the flow rate of the ink, the pressure control unit being arranged above the ink warming block, so that the ink is guided from the ink storage unit to the pressure control unit by the water head difference (h) between the height of the liquid level of the ink in the ink storage unit and the height of the liquid level of the ink at the inlet of the pressure control unit; and a protrusion that protrudes from the inkjet head and is configured to guide the ink to the inkjet head through a protruding flow path that is formed in the protrusion; wherein the ink flow path portion is configured to supply the ink to the protruding flow path of the protrusion; and a conducting portion that is formed in the ink warming block itself or separately from the ink warming block and through which heat from the ink warming block is conducted is disposed outside of and adjacently to the protrusion, the conducting portion being configured to heat the protrusion with the conducted heat.
A method for manufacturing a solid state battery comprises the following steps - of: preparing at least one negative electrode, at least one positive electrode and at least one solid electrolyte layer; carrying out stacking in such a manner that the solid electrolyte layer is interposed between the negative electrode and the positive electrode to prepare a stacked structure; pressing the stacked structure to form an electrode assembly (a); mixing an organic peroxide-based crosslinking initiator with a nonpolar solvent to prepare a crosslinking agent solution; impregnating the electrode assembly (a) with the solution; and warming the impregnated electrode assembly (a) to form an electrode assembly (a'), wherein step is carried out in such a temperature range that crosslinking may be initiated and performed in the electrode assembly (a'), wherein the positive electrode, the negative electrode and the solid electrolyte layer comprise a binder polymer resin, and the binder polymer resin of the electrode assembly (a') is crosslinked to form an interlayer continuous phase at the interface between the negative electrode and the solid electrolyte layer and at the interface between the positive electrode and the solid electrolyte layer, the negative electrode, the positive electrode and the solid electrolyte layer comprise a sulfide based solid electrolyte, and the negative electrode and the positive electrode comprise a rubber-based binder resin. preparing at least one negative electrode, at least one positive electrode and at least one solid electrolyte layer; carrying out stacking in such a manner that the solid electrolyte layer is interposed between the negative electrode and the positive electrode to prepare a stacked structure; pressing the stacked structure to form an electrode assembly (a); mixing an organic peroxide-based crosslinking initiator with a nonpolar solvent to prepare a crosslinking agent solution; impregnating the electrode assembly (a) with the solution; and warming the impregnated electrode assembly (a) to form an electrode assembly (a'), wherein step is carried out in such a temperature range that crosslinking may be initiated and performed in the electrode assembly (a'), wherein the positive electrode, the negative electrode and the solid electrolyte layer comprise a binder polymer resin, and the binder polymer resin of the electrode assembly (a') is crosslinked to form an interlayer continuous phase at the interface between the negative electrode and the solid electrolyte layer and at the interface between the positive electrode and the solid electrolyte layer, the negative electrode, the positive electrode and the solid electrolyte layer comprise a sulfide based solid electrolyte, and the negative electrode and the positive electrode comprise a rubber-based binder resin.
A process for catalytic pyrolysis of biomass, comprising: reacting a biomass starting material under pyrolysis conditions in the presence of a catalyst to yield a pyrolysis reaction product; and regenerating the catalyst used in the pyrolysis reaction, to remove coke deposited on the catalyst and yield regenerated catalyst for use in the pyrolysis reaction, wherein the catalyst comprises (i) matrix material comprising a zirconia support, and (ii) tungsten oxide on the matrix material at a tungsten oxide loading of from 15 to 17% by weight, based on total weight of zirconia and tungsten oxide.. reacting a biomass starting material under pyrolysis conditions in the presence of a catalyst to yield a pyrolysis reaction product; and regenerating the catalyst used in the pyrolysis reaction, to remove coke deposited on the catalyst and yield regenerated catalyst for use in the pyrolysis reaction, wherein the catalyst comprises (i) matrix material comprising a zirconia support, and (ii) tungsten oxide on the matrix material at a tungsten oxide loading of from 15 to 17% by weight, based on total weight of zirconia and tungsten oxide..