mhurhangee/ep-ind-claims huggingface dataset:
Method for generating an apparatus-specific apparatus certificate (18, 18a - 18c) for an apparatus (1, 1a - 1c), comprising: coupling a security device to the apparatus (1, 1a - 1c), wherein a one-time useable private signing key is stored in the security device; generating apparatus-specific identification information (21a - 21c) in the security device; storing the apparatus-specific identification information (21a - 21c) in the security device; accessing the private signing key in the security device; generating the apparatus-specific apparatus certificate (18, 18a - 18c) depending on the stored identification information (21a - 21c) in the security device, wherein the apparatus-specific apparatus certificate (18, 18a - 18c) is signed using the private signing key; and preventing a further access to the private signing key. coupling a security device to the apparatus (1, 1a - 1c), wherein a one-time useable private signing key is stored in the security device; generating apparatus-specific identification information (21a - 21c) in the security device; storing the apparatus-specific identification information (21a - 21c) in the security device; accessing the private signing key in the security device; generating the apparatus-specific apparatus certificate (18, 18a - 18c) depending on the stored identification information (21a - 21c) in the security device, wherein the apparatus-specific apparatus certificate (18, 18a - 18c) is signed using the private signing key; and preventing a further access to the private signing key.
A battery module comprising: a plurality of battery cells (120, 122, 124, 126); a head unit disposed on top of the plurality of battery cells (120, 122, 124, 126), the head unit including a positive terminal coupler connecting positive terminal posts of the plurality of battery cells (120, 122, 124, 126) and a negative terminal coupler connecting negative terminal posts of the plurality of battery cells (120, 122, 124, 126); wherein the positive terminal coupler includes a conical positive terminal disposed on a front side of the battery module and the negative terminal coupler includes a conical negative terminal disposed on a rear side of the battery module; and wherein the conical positive terminal has a convex shape that extends away from the front side of the battery module and the conical negative terminal has a concave shape that defines a recess extending into the rear side of the battery module whereby the conical positive terminal and the conical negative terminal are configured to mate with each other. a plurality of battery cells (120, 122, 124, 126); a head unit disposed on top of the plurality of battery cells (120, 122, 124, 126), the head unit including a positive terminal coupler connecting positive terminal posts of the plurality of battery cells (120, 122, 124, 126) and a negative terminal coupler connecting negative terminal posts of the plurality of battery cells (120, 122, 124, 126); wherein the positive terminal coupler includes a conical positive terminal disposed on a front side of the battery module and the negative terminal coupler includes a conical negative terminal disposed on a rear side of the battery module; and wherein the conical positive terminal has a convex shape that extends away from the front side of the battery module and the conical negative terminal has a concave shape that defines a recess extending into the rear side of the battery module whereby the conical positive terminal and the conical negative terminal are configured to mate with each other.
Fuel feed device for automotive vehicles comprising a fuel reservoir, a means for controlled injection of additives into the reservoir comprising a valve injector located close to the bottom of the tank, said device being characterised by the fact that the injector comprises a valve element forced towards a valve seat by an elastic element.
An ink cartridge attachable to and detachable from a printing device, and comprising: an outer package; an ink container housed inside the outer package; and a first sheet body (31, 32) attached to an outer surface of the outer package, characterized in that the outer package includes: a first breakable section (41a, 42a), at least partially defining a first small piece (41, 42) suitable to be pressed inward, that is formed consecutively between a surface of the outer package covered by the first sheet body (31, 32) and a surface of the outer package not covered by the first sheet body (31, 32), and is breakable by external force; and the first small piece (41, 42) being able to be pressed inside the outer package by breaking the first breakable section (41a, 42a). an outer package; an ink container housed inside the outer package; and a first sheet body (31, 32) attached to an outer surface of the outer package, characterized in that the outer package includes: a first breakable section (41a, 42a), at least partially defining a first small piece (41, 42) suitable to be pressed inward, that is formed consecutively between a surface of the outer package covered by the first sheet body (31, 32) and a surface of the outer package not covered by the first sheet body (31, 32), and is breakable by external force; and the first small piece (41, 42) being able to be pressed inside the outer package by breaking the first breakable section (41a, 42a). a first breakable section (41a, 42a), at least partially defining a first small piece (41, 42) suitable to be pressed inward, that is formed consecutively between a surface of the outer package covered by the first sheet body (31, 32) and a surface of the outer package not covered by the first sheet body (31, 32), and is breakable by external force; and the first small piece (41, 42) being able to be pressed inside the outer package by breaking the first breakable section (41a, 42a).
A method for manufacturing a power module substrate, comprising: preparing a ceramics substrate, a metal plate (22, 23) composed of aluminum, and a Cu-layer (24, 25) having a thickness of 0.15 μm to 3 μm; stacking the ceramics substrate and the metal plate (22, 23) in layers with the Cu-layer (24, 25) interposed therebetween; pressing the ceramics substrate, the Cu-layer (24, 25), and the metal plate (22, 23) which were stacked in layers in a stacked direction at a pressure of 0.1 to 0.5 MPa (1 to 5 kgf/cm 2), and heating the ceramics substrate, the Cu-layer (24, 25), and the metal plate (22, 23); forming a fusion metal layer (26, 27) at a boundary face between the ceramics substrate and the metal plate (22, 23); solidifying the fusion metal layer (26, 27) by cooling; and making Cu to be included into the metal plate (22, 23) adjacent to the joint interface between the ceramics substrate and the metal plate (22, 23) so that a Cu concentration close to the joint interface is in the range of 0.05 to 5 wt%, wherein the Cu concentration is the average value of five points measured in the range from the joint interface to 50 μm from the joint interface by use of an EPMA analyzation having a spot diameter of 30 μm. preparing a ceramics substrate, a metal plate (22, 23) composed of aluminum, and a Cu-layer (24, 25) having a thickness of 0.15 μm to 3 μm; stacking the ceramics substrate and the metal plate (22, 23) in layers with the Cu-layer (24, 25) interposed therebetween; pressing the ceramics substrate, the Cu-layer (24, 25), and the metal plate (22, 23) which were stacked in layers in a stacked direction at a pressure of 0.1 to 0.5 MPa (1 to 5 kgf/cm 2), and heating the ceramics substrate, the Cu-layer (24, 25), and the metal plate (22, 23); forming a fusion metal layer (26, 27) at a boundary face between the ceramics substrate and the metal plate (22, 23); solidifying the fusion metal layer (26, 27) by cooling; and making Cu to be included into the metal plate (22, 23) adjacent to the joint interface between the ceramics substrate and the metal plate (22, 23) so that a Cu concentration close to the joint interface is in the range of 0.05 to 5 wt%, wherein the Cu concentration is the average value of five points measured in the range from the joint interface to 50 μm from the joint interface by use of an EPMA analyzation having a spot diameter of 30 μm.
A planar storage facility comprising: a storage item placement plane; a storage conveyor; a retrieval conveyor; and a storage/retrieval device which lifts and transports a storage item (c) between a desired position on the storage item placement plane and the storage conveyor and the retrieval conveyor, wherein a plurality of passage regions (P Aal ∼ P Ab3) dividing the storage item placement plane into small areas (S Aal ∼ S Ab4) are established in the storage item placement plane, and at least one end of the passage regions (P Aal ∼ P Ab3) opens to an outside of a periphery of the storage item placement plane and is configured such that an operation of manually transporting out the storage item (c) in the small areas (S Aal ∼ S Ab4) can be performed from within the passage regions (P Aal ∼ P Ab3) forming the small areas (S Aal ∼ S Ab4); characterized in that: in a full state where the storage items (c) are stored in all of the respective small areas (S Aal ∼ S Ab4), the storage/retrieval device is controlled such that the storage item (c) can be stored into the passage region (P Aal ∼ P Ab3) from an innermost section of the passage region (P Aal ∼ P Ab3) farthest from an open end which opens to the outside of the periphery of the storage item placement plane. a storage item placement plane; a storage conveyor; a retrieval conveyor; and a storage/retrieval device which lifts and transports a storage item (c) between a desired position on the storage item placement plane and the storage conveyor and the retrieval conveyor, in a full state where the storage items (c) are stored in all of the respective small areas (S Aal ∼ S Ab4), the storage/retrieval device is controlled such that the storage item (c) can be stored into the passage region (P Aal ∼ P Ab3) from an innermost section of the passage region (P Aal ∼ P Ab3) farthest from an open end which opens to the outside of the periphery of the storage item placement plane.
A strain gauge element comprising a substrate, at least one transducing element configured to change at least one electrical property thereof in response to deformations in said substrate, and a trimming component for setting electrical resistance of said strain gauge element, characterized in that: said substrate comprises at least one deformable region; said at least one transducing element is arranged to reside on said deformable region of said substrate; said trimming component comprising one or more groups of trimming grids electrically connected to said at least one transducing element and configured and operable to accurately set electrical resistance of said strain gauge element by application of one or more cuts to at least one of said one or more groups of trimming grids for setting length of its conduction path, said one or more groups of trimming grids are separate components arranged to reside on separate surface areas of said substrate that are remote from the deformable region on which the at least one transducing element is arranged such that they are substantially not being susceptible to the deformations of said substrate; and at least one heat sink element (46h,13s,13r,13s',H i) provided on, or above, at least one surface area of said substrate and being thermally and electrically coupled to at least one of said at least one transducing element and said one or more groups of trimming grids and configured to dissipate heat developed therein. said substrate comprises at least one deformable region; said at least one transducing element is arranged to reside on said deformable region of said substrate; said trimming component comprising one or more groups of trimming grids electrically connected to said at least one transducing element and configured and operable to accurately set electrical resistance of said strain gauge element by application of one or more cuts to at least one of said one or more groups of trimming grids for setting length of its conduction path, said one or more groups of trimming grids are separate components arranged to reside on separate surface areas of said substrate that are remote from the deformable region on which the at least one transducing element is arranged such that they are substantially not being susceptible to the deformations of said substrate; and at least one heat sink element (46h,13s,13r,13s',H i) provided on, or above, at least one surface area of said substrate and being thermally and electrically coupled to at least one of said at least one transducing element and said one or more groups of trimming grids and configured to dissipate heat developed therein.
Hand tool comprising handles (4, 6) and jaws (12, 14), where the jaws (12, 14) are operated by the handles (4, 6), the hand tool is asymmetric comprising a first lower handle arranged to be gripped by a user's fingers when pressing the handles, and a second upper handle characterized in that said first lower handle comprising a hard low-friction surface, which is arranged to allow the user's fingers to slide on said handle when pressing the handles and said second upper handle having a non-slip covering in order to have an anti-slip effect to the user's palm when pressing the handles, wherein an anti-slip device is arranged on the outer side of the distal end of the first lower handle to enable a user to apply a force in excess of hand force on the second upper handle of the tool by supporting the anti-slip device of the first lower handle against a support surface.
A hydraulic attachment having a hydraulic circuit, the attachment being a construction or demolition tool, in particular a hydraulic breaker, demolition pincers, scrap pincers, a pulverizer, a grab, a crusher bucket or a compactor, which can be mechanically connected to a support device and hydraulically connected to the hydraulic system of the support device, characterized by a residual pressure indicator, which is directly connected to the hydraulic circuit of the attachment in a detachable or non-detachable manner, so that the residual pressure indicator operates independently of the support device installation.
Battery structure for an electric vehicle comprising a. a battery case for at least one battery module and b. a protector comprising i. a top belt ii. a bottom belt and iii. a core arranged between and interconnecting the top belt and the bottom belt, characterized in that c. the top belt has a wavelike cross section. a. a battery case for at least one battery module and b. a protector comprising i. a top belt ii. a bottom belt and iii. a core arranged between and interconnecting the top belt and the bottom belt, characterized in that i. a top belt ii. a bottom belt and iii. a core arranged between and interconnecting the top belt and the bottom belt, characterized in that c. the top belt has a wavelike cross section.
Lubricating composition for use in the crankcase of an engine comprising: (i) a base oil comprising at least one monoester or a mixture of monoesters, wherein said monoester or mixture of monoesters has a kinematic viscosity at 100°C of not more than 4 mm 2 /s, a viscosity index of at least 130 and a Noack evaporation loss of not more than 20 wt%; and (ii) a polymeric viscosity index improvers selected from (a) one or more comb polymers; (b) a poly(meth)acrylate polymer having 1 to 70 mol% of one or more (meth) acrylate structural units represented by formula below wherein Riis a hydrogen atom or a methyl group, and R 2 is a straight chain or branched hydrocarbon group having not less than 16 carbon atoms; (c) styrene-diene hydrogenated copolymers; and (d) mixtures thereof wherein said at least one monoester is the reaction product of a monohydric alcohol and a monocarboxylic acid wherein said monohydric alcohol is at least one saturated branched-chain aliphatic monohydric alcohol having between 16 and 36 carbon atoms and wherein said monocarboxylic acid is at least one saturated straight-chain aliphatic monocarboxylic acid having between 5 and 10 carbon atoms. (i) a base oil comprising at least one monoester or a mixture of monoesters, wherein said monoester or mixture of monoesters has a kinematic viscosity at 100°C of not more than 4 mm 2 /s, a viscosity index of at least 130 and a Noack evaporation loss of not more than 20 wt%; and (ii) a polymeric viscosity index improvers selected from (a) one or more comb polymers; (b) a poly(meth)acrylate polymer having 1 to 70 mol% of one or more (meth) acrylate structural units represented by formula below wherein Riis a hydrogen atom or a methyl group, and R 2 is a straight chain or branched hydrocarbon group having not less than 16 carbon atoms; (c) styrene-diene hydrogenated copolymers; and (d) mixtures thereof wherein said at least one monoester is the reaction product of a monohydric alcohol and a monocarboxylic acid wherein said monohydric alcohol is at least one saturated branched-chain aliphatic monohydric alcohol having between 16 and 36 carbon atoms and wherein said monocarboxylic acid is at least one saturated straight-chain aliphatic monocarboxylic acid having between 5 and 10 carbon atoms. (a) one or more comb polymers; (b) a poly(meth)acrylate polymer having 1 to 70 mol% of one or more (meth) acrylate structural units represented by formula below wherein Riis a hydrogen atom or a methyl group, and R 2 is a straight chain or branched hydrocarbon group having not less than 16 carbon atoms; (c) styrene-diene hydrogenated copolymers; and (d) mixtures thereof
A method for synthesizing hydrocarbonaceous compounds, the method comprising: introducing a fuel stream comprising a reformable fuel into an anode of a molten carbonate fuel cell, an internal reforming element associated with the anode, or a combination thereof; introducing a cathode inlet stream comprising CO2 and O2 into a cathode of the molten carbonate fuel cell; generating electricity within the molten carbonate fuel cell; generating an anode exhaust: comprising H2, CO, and CO2, having a ratio of H2 to CO of at least 2.5:1, and having a CO2 content of at least 20 vol%; removing water and CO2 from at least a portion of the anode exhaust to produce an anode effluent gas stream, the anode effluent gas stream having a concentration of water that is less than half of a concentration of water in the anode exhaust, having a concentration of CO2 that is less than half of a concentration of CO2 in the anode exhaust, or a combination thereof, the anode effluent gas stream also having a ratio of H2 to CO of 2.3:1 or less; reacting at least a portion of the anode effluent gas stream over a non-shifting Fischer-Tropsch catalyst comprising Co, Rh, Ru, Ni, Zr, or a combination thereof, to produce at least one gaseous product and at least one non-gaseous product; and optionally recycling at least a portion of the gaseous product to an anode inlet, to a cathode inlet, or to a combination thereof.
A data backup method comprising: acquiring, by a master cooperative service node, a backup rule after determining a cooperative service node to be the master cooperative service node; and initiating, by the master cooperative service node, a backup operation according to the backup rule when determining that a backup trigger condition is satisfied, wherein determining a cooperative service node to be the master cooperative service node comprises: initiating, by all cooperative service nodes, a contention control flow to a distributed file lock service node, to cause the distributed file lock service node to determine a cooperative service node, which first completes the contention control flow, to be the master cooperative service node, and obtaining a contention result determined by the distributed file lock service node. acquiring, by a master cooperative service node, a backup rule after determining a cooperative service node to be the master cooperative service node; and initiating, by the master cooperative service node, a backup operation according to the backup rule when determining that a backup trigger condition is satisfied, wherein determining a cooperative service node to be the master cooperative service node comprises: initiating, by all cooperative service nodes, a contention control flow to a distributed file lock service node, to cause the distributed file lock service node to determine a cooperative service node, which first completes the contention control flow, to be the master cooperative service node, and obtaining a contention result determined by the distributed file lock service node.
A method of adhesively bonding a first substrate on a second substrate in an adhesive bonding zone by means of an adhesive joint integrating a support mesh, characterized in that a surplus adhesive joint is folded over onto one or the other of the first or second substrates (12, 14) so that the support mesh is present over the entire adhesively bonded zone after curing.
Mechanism for a piece of seating furniture, in particular synchronizing mechanism for a correlated seat/backrest movement of a piece of seating furniture, in particular an office chair, having a base support which is able to be placed on a chair column, having a seat support and having a backrest support, wherein the backrest support is connected to the seat support in such a way that a pivoting movement of the backrest support from a home position into a rearwardly pivoted position induces a movement of the seat support relative to the base support, wherein a spring mechanism is provided, said spring mechanism having at least one spring element which influences the pivoting resistance of the backrest and of which one end is operatively connected to at least one functional element, wherein the at least one functional element is supported against a supporting device which has both a first supporting element, arranged on the seat support, and a second supporting element, arranged on the base support, wherein at least one of said supporting elements is configured to be adjustable, in particular variable in terms of location and/or position, and wherein the at least one functional element is supported against both supporting elements (21, 22) at the same time, and wherein, by way of the adjustment of the at least one adjustable supporting element, an angle included by supporting surfaces (23, 24) of the two supporting elements (21, 22) is variable, wherein, due to this variation in the angle, when the backrest support is pivoted, the movement of the functional element and thus the functioning of the spring element changes in a manner dependent on said angle.