mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising a battery stack, in which an inlet of an air flow path is opened at one side and an outlet of the air flow path is opened at another side, and a plurality of cooling ducts (20, 40, 70, 90) combined to two side portions of the battery stack to respectively communicate with the inlet of the air flow path and the outlet of the air flow path, wherein each cooling duct comprises a duct housing (20A, 40A, 70A, 90A) at least one of a plurality of duct housings comprises a plug accommodating part defining a through hole, and a harness accommodating plug air-tightly inserted into the through hole and having a plurality of wire accommodating holes, a harness, in which an internal harness and an external harness are combined, extends from outside to inside of a duct housing by passing through the harness accommodating plug, a plurality of wires of the internal harness and a plurality of corresponding wires of the external harness are inserted into one side and protrude from another side of the plurality of wire accommodating holes, and the plurality of wires and the plurality of corresponding wires are electrically connected to each other; wherein at least one of the plurality of cooling ducts (20, 40, 70, 90) includes therein a blast fan and a driving motor, wherein the internal harness is electrically connected to the driving motor configured to drive the blast fan provided on an inner wall of the duct housing (20A, 40A, 70A, 90A), and wherein the harness accommodating plug comprises a stopper block and an insertion part protruding from a top of the stopper block at a predetermined height, the stopper block is located below the insertion part, and externally protrudes and extends from a bottom edge of the insertion part, and the insertion part has an uneven portion contacting an inner surface of the through hole along an outer circumferential surface.
A display device comprising: a substrate; a first active layer of a first transistor and a second active layer of a second transistor which are disposed on the substrate; a first gate insulating layer disposed on the first active layer; an oxide layer disposed on the first gate insulating layer and including a first oxide semiconductor; a first gate electrode disposed on the oxide layer; a second gate insulating layer disposed on the first gate electrode and the second active layer; and a second gate electrode which overlaps the second active layer in a thickness direction of the substrate and is disposed on the second gate insulating layer, wherein the oxide layer overlaps the first active layer and does not overlap the second active layer in the thickness direction, and wherein the first active layer includes a second oxide semiconductor. a substrate; a first active layer of a first transistor and a second active layer of a second transistor which are disposed on the substrate; a first gate insulating layer disposed on the first active layer; an oxide layer disposed on the first gate insulating layer and including a first oxide semiconductor; a first gate electrode disposed on the oxide layer; a second gate insulating layer disposed on the first gate electrode and the second active layer; and a second gate electrode which overlaps the second active layer in a thickness direction of the substrate and is disposed on the second gate insulating layer, wherein the oxide layer overlaps the first active layer and does not overlap the second active layer in the thickness direction, and wherein the first active layer includes a second oxide semiconductor.
A method for granulating a glass batch using a silicate-phosphate binder, characterised in that the binder is formed in situ in a mixer from a first binder precursor and a second binder precursor during mixing of the glass batch components with both binder precursors, whereby the first binder precursor is water glass containing hydrated sodium silicates or hydrated potassium silicates or a mixture of hydrated sodium and potassium silicates and the second binder precursor is an aqueous solution of Ca(H 2 PO 4) 2 or a mixture of Ca(H 2 PO 4) 2 and Mg(H 2 PO 4) 2..
A high-temperature alloy pressure casting mold for impellers and guide vanes, comprising a casting main pipe, a lower casting pipe and forming steel mold assemblies, and characterized in that a plurality of forming steel mold assemblies surround the casting main pipe, the casting main pipe is provided with a pressure device, the bottom of the casting main pipe is connected to a casting gate at the bottom of each forming steel mold assembly by means of the lower casting pipe, the casting main pipe comprises a steel jacket and a ceramic layer, the ceramic layer is attached to an inner surface of the steel jacket, the lower casting pipe comprises a steel pipe and a ceramic pipe, and the steel pipe is sheathed outside the ceramic pipe.
Device for holding or fastening a corrugated tube on or to a solid surface, wherein the device has a corrugated tube latching formation (S1, S2) which is complementary to the outer contour of the corrugated tube, wherein, in a elastically non-deformed state or in a first elastically deformed state with a first deformation D1, the device can be in form-fitting engagement with the corrugated tube, and wherein, as it is brought into engagement with the corrugated tube and as it is brought out of engagement with the corrugated tube, the device passes through a second elastically deformed state with a second deformation D2, wherein the second elastic deformation D2 is greater than the first elastic deformation D1; wherein the corrugated tube latching formation (S1, S2) has a first limb and a second limb, which are connected to each other in one piece in a base area of the device, wherein the first limb has a first limb end region and the second limb has a second limb end region, wherein the two limb end regions (ES1, ES2) are arranged opposite each other and wherein, between the first limb end region and the second limb end region, a corrugated tube can be brought into engagement and out of engagement with the device with elastic deformation of the two limbs (S1, S2) and while passing through the second elastically deformed state with the second elastic deformation D2; characterized in that the device has a third device connecting formation on the outer side of at least one of its two limbs (S1, S2) and, in its base area, has a fourth device connecting formation, which is complementary to the third device connecting formation and permits the device to be connected to the third device connecting formation of a second device arranged offset laterally underneath it.
An austenite-ferrite duplex steel wire having excellent cold forgeability for producing a high strength and highly corrosion resistant bolt, the steel wire consisting of in term of mass %, C: 0.005 to 0.05%, Si: 0.1 to 1.0%, Mn: 0.1 to 10.0%, Ni: 1.0 to 6.0%, Cr: 19.0 to 30.0%, Cu: not less than 0.2 %, but less than 1.0 %, N: 0.005 to 0.20%, optionally one or more selected from Mo: not more than 1.0%, B: not more than 0.01%, Al: not more than 0.1%, Mg: not more than 0.01%, and Ca: not more than 0.01%, Nb: not more than 1.0%, Ti: not more than 0.5%, V: not more than 1.0%, and Zr: not more than 1.0% with a remainder being iron and unavoidable impurities, wherein C+N is not more than 0.20%, an M value represented by formula (a) is not more than 60, an F value represented by formula (b) is from 45 to 85, and a tensile strength is within a range from 700 to 1000 N/mm 2, M = 551 − 462 C + N − 9.2 Si − 8.1 Mn − 29 Ni + Cu − 13.7 Cr − 18.5 Mo F = 5.6 Cr − 7.1 Ni + 2.4 Mo + 15 Si − 3.1 Mn − 300 C − 134 N − 26.6
Method for repeatedly measuring the position of a construction device, which is embodied as a mobile power tool, on a construction site, for example on a building-construction construction site or a civil engineering construction site, wherein a position is measured relative to at least two, preferably at least three markings (14.1, 14.2, 14.3), the method comprising the steps (110, 112, 114, 116) of: a. directly measuring the distances (L1, L2, L3) from a position measurement system arranged and/or formed on the construction device to at least two of the markings (14.1, 14.2, 14.3), preferably to all of the markings (14.1, 14.2, 14.3) located in a field of view of the position measurement system, and measuring the apparent viewing angles (Alpha1, Alpha2, Alpha3) of the at least two of the markings (14.1, 14.2, 14.3) from the position measurement system in order to carry out a first measurement of the position of the construction device, and b. taking a bearing of at least two of the markings (14.1, 14.2, 14.3) from the position measurement system in order to carry out a second measurement of the position of the construction device, characterized in that at least one position of a component of the construction site, for example a building wall, is determined by means of a mechanical contact of the construction device with a surface region of the component, wherein a position of the surface region is determined taking into account the dimensions and geometry of the construction device. a. directly measuring the distances (L1, L2, L3) from a position measurement system arranged and/or formed on the construction device to at least two of the markings (14.1, 14.2, 14.3), preferably to all of the markings (14.1, 14.2, 14.3) located in a field of view of the position measurement system, and measuring the apparent viewing angles (Alpha1, Alpha2, Alpha3) of the at least two of the markings (14.1, 14.2, 14.3) from the position measurement system in order to carry out a first measurement of the position of the construction device, and b. taking a bearing of at least two of the markings (14.1, 14.2, 14.3) from the position measurement system in order to carry out a second measurement of the position of the construction device,
Optical material comprising a polymer matrix and at least one benzotriazole compound having at least one ester group, characterized in that: the optical transmittance through a 2 mm thick layer of said optical material is lower than 1 % for each light wavelength ranging from 280 to 400 nm, and higher than 65 % for light having a wavelength of 430 nm, and said at least one benzotriazole compound does not comprise any polymerizable group selected from allylic, acrylic and methacrylic moieties, and has formula: in which A is a divalent group, R 1 is selected from the groups cyano, amino, hydroxyl, mercapto, carboxy, alkoxy, aryloxy, alkylsulfanyl, arylsulfanyl and a hydrogen atom, the R 2 groups are identical or different monovalent groups, n is a integer ranging from 1 to 3, and R 3 is a linear or branched, substituted or unsubstituted alkyl or aryl group, and wherein the optical material is the substrate of an ophthalmic lens.
A method for determining optimized parameters for cutting various types of food workpieces with a blade cutter, the blade cutter rotated by a motor, said method comprising: selecting a first set of cutting parameters; performing the cutting of the workpieces using the first set of cutting parameters; monitoring the rotational speed profile of the blade cutter about the full revolution of the blade cutter by the motor; monitoring data from the motor corresponding to operational parameters of the motor during the revolution of the blade cutter; monitoring the accuracy of desired physical specifications of the portions being cut; monitoring the feed rate of the workpieces relative to the blade cutter; specifying the rotational speed profile of the blade cutter during the full revolution of the blade cutter, based on the monitored data from the motor and on the monitored accuracy of the desired physical specifications of the cut portion and based on the desired operational parameters of the motor and the desired accuracy of the one or more physical specifications of the portions being cut thereby to optimize the rotational speed profile of the blade cutter during the full rotation of the blade cutter. selecting a first set of cutting parameters; performing the cutting of the workpieces using the first set of cutting parameters; monitoring the rotational speed profile of the blade cutter about the full revolution of the blade cutter by the motor; monitoring data from the motor corresponding to operational parameters of the motor during the revolution of the blade cutter; monitoring the accuracy of desired physical specifications of the portions being cut; monitoring the feed rate of the workpieces relative to the blade cutter; specifying the rotational speed profile of the blade cutter during the full revolution of the blade cutter, based on the monitored data from the motor and on the monitored accuracy of the desired physical specifications of the cut portion and based on the desired operational parameters of the motor and the desired accuracy of the one or more physical specifications of the portions being cut thereby to optimize the rotational speed profile of the blade cutter during the full rotation of the blade cutter.
A flexible laminate structure for a package comprising: an outer layer; an inner layer laminated to the outer layer; a blocker ink layer disposed between the inner layer and the outer layer; an inner ink layer disposed between the blocker ink layer and the inner layer; a pressure sensitive adhesive layer applied to the inner layer; and permanent adhesive surrounding the pressure sensitive adhesive; wherein a cut line is defined through part of a thickness of the laminate structure to form a peelable portion that includes the inner ink layer, the blocker ink layer, and the outer layer; wherein the blocker ink layer obscures the inner ink layer from view through the outer layer; wherein the inner ink layer is visible on the peelable portion after removal of the peelable portion from the inner layer; and wherein the cut line is formed through the pressure sensitive adhesive. an outer layer; an inner layer laminated to the outer layer; a blocker ink layer disposed between the inner layer and the outer layer; an inner ink layer disposed between the blocker ink layer and the inner layer; a pressure sensitive adhesive layer applied to the inner layer; and permanent adhesive surrounding the pressure sensitive adhesive; wherein a cut line is defined through part of a thickness of the laminate structure to form a peelable portion that includes the inner ink layer, the blocker ink layer, and the outer layer; wherein the blocker ink layer obscures the inner ink layer from view through the outer layer; wherein the inner ink layer is visible on the peelable portion after removal of the peelable portion from the inner layer; and wherein the cut line is formed through the pressure sensitive adhesive.
High speed earthing switch for a gas insulated substation in metal protection, the switch comprising: - a circuit (1, 5) for high speed earthing of a conductor of the substation, - a vacuum switch connected in series between the high speed earthing circuit and earth and - an actuating device adapted for operating the high speed earthing circuit and the vacuum switch, characterised in that the actuating device is adapted for electrically connecting the substation conductor to earth, from an open state of the high speed earthing circuit (1, 5) and of the vacuum switch, by closing the vacuum switch and then by closing the high speed earthing circuit (1, 5) and in that the actuating device is adapted for electrically separating the substation conductor from earth, from a closed state of the high speed earthing circuit (1, 5) and of the vacuum switch, by opening the high speed earthing circuit (1, 5) and then by opening the vacuum switch. - a circuit (1, 5) for high speed earthing of a conductor of the substation, - a vacuum switch connected in series between the high speed earthing circuit and earth and - an actuating device adapted for operating the high speed earthing circuit and the vacuum switch,
A battery module comprising: at least one pouch type battery cell including a cell body and an electrode lead extending from the cell body; a frame cartridge to receive the battery cell in a manner of surrounding a circumference of the battery cell, the frame cartridge having a cell mounting part where the cell body is mounted; and a plurality of cell support members interposed between the cell mounting part and the cell body, characterized in that the cell support members are made of silicon and are integratedly formed with the frame cartridge by insert molding, and are spaced away from each other along a direction in which the cell mounting part extends. at least one pouch type battery cell including a cell body and an electrode lead extending from the cell body; a frame cartridge to receive the battery cell in a manner of surrounding a circumference of the battery cell, the frame cartridge having a cell mounting part where the cell body is mounted; and a plurality of cell support members interposed between the cell mounting part and the cell body, characterized in that the cell support members are made of silicon and are integratedly formed with the frame cartridge by insert molding, and are spaced away from each other along a direction in which the cell mounting part extends.
A method for characterizing a region in a sample under study, the sample under study comprising a first region having first crystalline properties and a second region having second crystalline properties different from the first crystalline properties, the method comprising: irradiating the sample under study with an electron beam, the average relative angle between the electron beam and the sample under study being selected so that a contribution in the backscattered or forward scattered signal of the first region is larger than a contribution of the second region, detecting the backscattered or forward scattered electrons, and deriving a characteristic of the first and/or the second region in the sample under study from the detected backscattered or forward scattered electrons, the method characterised in that: said irradiating comprises modulating the instantaneous relative angle α between the electron beam and the sample under study with a predetermined modulation frequency during said irradiating, and wherein said detecting comprises detecting the resulting modulated backscattered or forward scattered electrons signal modulated at the predetermined modulation frequency. irradiating the sample under study with an electron beam, the average relative angle between the electron beam and the sample under study being selected so that a contribution in the backscattered or forward scattered signal of the first region is larger than a contribution of the second region, detecting the backscattered or forward scattered electrons, and deriving a characteristic of the first and/or the second region in the sample under study from the detected backscattered or forward scattered electrons, the method characterised in that: said irradiating comprises modulating the instantaneous relative angle α between the electron beam and the sample under study with a predetermined modulation frequency during said irradiating, and wherein said detecting comprises detecting the resulting modulated backscattered or forward scattered electrons signal modulated at the predetermined modulation frequency. said irradiating comprises modulating the instantaneous relative angle α between the electron beam and the sample under study with a predetermined modulation frequency during said irradiating, and wherein said detecting comprises detecting the resulting modulated backscattered or forward scattered electrons signal modulated at the predetermined modulation frequency.
An additive manufacturing device for manufacturing a solid article, comprising an energy beam generation unit, a raw material supply unit, a raw material container containing a raw material including a raw material surface exposed to an energy beam to be emitted by the energy beam generation unit in operation, wherein the heat source includes a heating surface for heating the raw material surface to form a pre-heated raw material surface, wherein the energy beam generation unit is disposed with a directing unit to direct the energy beam onto the pre-heated raw material surface, wherein the pre-heated raw material surface forms the upper surface of an uppermost layer of raw material, such that the uppermost layer of raw material is transformed into a coherent sub-structure in the spots exposed to the energy beam such that the solid article is formable by the coherent structure formable from each sub-structure in each of the plurality layers of raw material including the uppermost layer of raw material, characterized in that a temperature homogenization box is arranged between the energy beam generation unit and the raw material container when the additive manufacturing device is in operation, wherein the additive manufacturing device comprises a housing, wherein the temperature homogenization box is located inside the housing.
A transport/presentation unit, preferably for beverage containers, comprising at least one transport/presentation carrier, said carrier comprising a bottom area for carrying containers and, at a first side of the bottom area, a first circumferential wall extending in a first extension direction, said first circumferential wall defining a first container reception volume area with at least one first container reception chamber (22, 24), and, at a second side of the bottom area a second circumferential wall extending in a second extension direction opposed to the first extension direction, said second circumferential wall defining a second container reception volume area with at least one second container reception chamber (38, 40, 42, 44), furthermore comprising in a delivery/presentation state of the unit a plurality of containers carried at the first side or the second side of the bottom area of at least one transport/presentation carrier, preferably container units, each with a plurality of containers, a lowest transport/presentation carrier in the height direction being carried on a transport/presentation pallet, characterized by said transport/presentation pallet comprising a circumferential wall, a container reception volume area with at least one container reception chamber being defined with a circumferential wall at the transport/presentation pallet.
Platinum/ruthenium catalyst for the anodic oxidation of methanol in direct methanol fuel cells, wherein the platinum/ruthenium content is in the range from 85 to 98 wt.% (based on the total weight of the catalyst) on a carbon-based support material having a specific surface area (measured by BET method) in the range from 1200 to 1600 m 2 /g, and wherein the mean particle size of the platinum/ruthenium particles (measured by XRD method) is less than 3 nm, and wherein the specific surface area (measured by BET method) of the catalyst is in the range from 100 to 160 m 2 /g.