mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising: a cartridge assembly comprising a plurality of cartridges, each cartridge accommodating a battery cell; a casing made of a metallic plate comprising an opening formed therein, and accommodating the cartridge assembly through the opening and surrounding the cartridge assembly; a cover coupled to the opening of the casing and separable from the casing; at least any one face of the casing comprises cut bonding parts to be bonded to each other for ease of processing; and a hook member selectively coupling and decoupling the casing and the cover with or from each other. a cartridge assembly comprising a plurality of cartridges, each cartridge accommodating a battery cell; a casing made of a metallic plate comprising an opening formed therein, and accommodating the cartridge assembly through the opening and surrounding the cartridge assembly; a cover coupled to the opening of the casing and separable from the casing; at least any one face of the casing comprises cut bonding parts to be bonded to each other for ease of processing; and a hook member selectively coupling and decoupling the casing and the cover with or from each other.
A preparation method for azoxystrobin with a structure represented by formula, comprising: a) allowing a chemical compound with a structure represented by formula to have an etherification reaction with 2-cyanophenol and/or its salt in a butyl acetate medium, under the catalysis of an azabicyclo-tertiary amine compound and/or its salt that serves as a catalyst, to obtain a butyl acetate solution that contains azoxystrobin; b) cooling down the butyl acetate solution that contains azoxystrobin to precipitate the azoxystrobin with a structure represented by formula from butyl acetate,
An activation system for activating a wellsite component of a wellsite, the activation system comprising an activation unit comprising a pump unit (226, 326), a pressure circuit (230, 330) comprising an unloader valve to selectively permit fluid to pass from the pump unit to the wellsite component, and an accumulator bank (228, 328) operatively connectable to the pressure circuit to store at least a portion of the fluid under pressure for passage to the wellsite component whereby the wellsite component is selectively activated, characterized by, the activation system further comprising a charging unit comprising: a charging circuit operatively connectable to the pressure circuit to selectively receive the fluid from the pump unit; a charging accumulator operatively connectable to the charging circuit to store at least a portion of the fluid received from the pump unit under pressure; and a pressure reducing valve operatively connectable to the charging circuit to selectively pass the fluid from the charging accumulator to the accumulator bank whereby an activation pressure of the fluid provided to the well site component is maintained. a charging circuit operatively connectable to the pressure circuit to selectively receive the fluid from the pump unit; a charging accumulator operatively connectable to the charging circuit to store at least a portion of the fluid received from the pump unit under pressure; and a pressure reducing valve operatively connectable to the charging circuit to selectively pass the fluid from the charging accumulator to the accumulator bank whereby an activation pressure of the fluid provided to the well site component is maintained.
Communications system for mobile communications comprising a central processing unit, a process and data processing unit, a loader and at least one memory partition (7 1), wherein the process and data processing unit is connected to the central processing unit, to the loader and to the at least one memory partition (7 1), and the loader is connected to the at least one memory partition (7 1), characterized in that the loader can replace a communications protocol (6 1, 6 2 to 6 n) in the at least one memory partition (7 1) while the communications system is in operation, and in that the communications system comprises as many further memory partitions (7 2 to 7 n) as to allow all the usable communications protocols (6 1, 6 2 to 6 n) to be loaded into these further memory partitions (7 2 to 7 n), and in that the loader can execute each usable communications protocol (6 1, 6 2 to 6 n) in the at least one memory partition (7 1) and/or in the further memory partitions (7 2 to 7 n), and in that the at least one memory partition (7 1) and each further memory partition (7 2 to 7 n) are each larger that each usable communications protocol (6 1, 6 2 to 6 n).
A tin-plated copper-alloy material for terminal comprising a Sn-based surface layer is formed on a surface of a substrate made of Cu alloy, and a Cu-Sn alloy layer is formed between the Sn-based surface layer and the substrate, wherein: the Cu-Sn alloy layer is an alloy layer containing Cu 6 Sn 5 as a major proportion and having a compound in which a part of Cu in the Cu 6 Sn 5 is substituted by Ni and Si in the vicinity of a boundary face at the substrate side; an oil-sump depth Rvk of the Cu-Sn alloy layer is 0.2 μm or more; an average thickness of the Sn-based surface layer is 0.2 μm or more and 0.6 μm or less; an area rate of the Cu-Sn alloy layer exposed at a surface of the Sn-based surface layer is 10% or more and 40% or less; and dynamic friction coefficient is 0.3 or less. the Cu-Sn alloy layer is an alloy layer containing Cu 6 Sn 5 as a major proportion and having a compound in which a part of Cu in the Cu 6 Sn 5 is substituted by Ni and Si in the vicinity of a boundary face at the substrate side; an oil-sump depth Rvk of the Cu-Sn alloy layer is 0.2 μm or more; an average thickness of the Sn-based surface layer is 0.2 μm or more and 0.6 μm or less; an area rate of the Cu-Sn alloy layer exposed at a surface of the Sn-based surface layer is 10% or more and 40% or less; and dynamic friction coefficient is 0.3 or less.
An extruder for processing pulverulent bulk material, comprising an extruder housing which has at least one axially directed bore with an inner wall and a screw accommodated in the bore, at least one housing portion, which accommodates a filter element for suctioning gaseous constituents of the bulk material, located on a support frame, being configured in a feed region of the extruder housing, the support frame being detachably fastened to the extruder housing, characterized in that - the filter element is formed from interconnected layers of sintered metal wire mesh screens, - the filter element contains at least one protective layer which is directed against the screw and has a mesh size of 20 - 100 μm, a filter layer having a mesh size of < 1 μm, and a rear support layer, the protective layer being located at a safety distance of 0.5 - 2 mm from the outer diameter of the screw, and - the filter element can be removed from the housing portion with the aid of the support frame, the filter element being self-supporting and dimensionally stable. - the filter element is formed from interconnected layers of sintered metal wire mesh screens, - the filter element contains at least one protective layer which is directed against the screw and has a mesh size of 20 - 100 μm, a filter layer having a mesh size of < 1 μm, and a rear support layer, the protective layer being located at a safety distance of 0.5 - 2 mm from the outer diameter of the screw, and - the filter element can be removed from the housing portion with the aid of the support frame, the filter element being self-supporting and dimensionally stable.
A tool for recording the number of swings in a ball game comprising a plurality of holed beads and a cord that is passed through the holes of the beads and that holds the beads so that the beads can slide, the tool for recording the number of swings in a ball game characterized in that the cord comprises a long band-shaped strip and is formed from a cord material configured not to stretch in a longitudinal direction wherein the long band-shaped strip is normally band-shaped and is deformable to form a C or U shape so as to elastically interlock with the walls of the holes of the beads and hold the beads in position
The use of catalysts of general formula: (L 1)M 1 -X-M 2 (L 2) wherein: - M 1 and M 2, either identical or different, represent an atom selected from the group consisting of transition metals; - X represents a nitrogen atom; - L 1 and L 2, either identical or different are coordinated with M 1 and M 2, respectively and represent ligands of the tetradentate type, having the general formula: wherein: - R 1 and R 2 represent independently of each other, a group selected from the group consisting of: H, phenyl, alkyl and halogen; or else form, with the two carbon atoms to which they are bound, a phenyl group or a heterocycle containing one or two nitrogen atoms, optionally substituted with one or more substituents selected from the group consisting of halogen, alkyl, alkoxy, nitro, carboxyl, hydroxyl, sulfone, sulfonic and sulfonate groups; - Y represent a nitrogen atom or a group CR, wherein R represents a hydrogen atom or a substituent selected from the group consisting of halogen, alkyl, phenyl groups, optionally substituted with one or several substituents selected from the group consisting of halogen, alkyl, alkoxy, nitro, carboxyl, hydroxyl, sulfone, sulfonic and sulfonate groups; for catalytic oxidation of halogenated compounds. - M 1 and M 2, either identical or different, represent an atom selected from the group consisting of transition metals; - X represents a nitrogen atom; - L 1 and L 2, either identical or different are coordinated with M 1 and M 2, respectively and represent ligands of the tetradentate type, having the general formula: wherein: - R 1 and R 2 represent independently of each other, a group selected from the group consisting of: H, phenyl, alkyl and halogen; or else form, with the two carbon atoms to which they are bound, a phenyl group or a heterocycle containing one or two nitrogen atoms, optionally substituted with one or more substituents selected from the group consisting of halogen, alkyl, alkoxy, nitro, carboxyl, hydroxyl, sulfone, sulfonic and sulfonate groups; - Y represent a nitrogen atom or a group CR, wherein R represents a hydrogen atom or a substituent selected from the group consisting of halogen, alkyl, phenyl groups, optionally substituted with one or several substituents selected from the group consisting of halogen, alkyl, alkoxy, nitro, carboxyl, hydroxyl, sulfone, sulfonic and sulfonate groups; - R 1 and R 2 represent independently of each other, a group selected from the group consisting of: H, phenyl, alkyl and halogen; or else form, with the two carbon atoms to which they are bound, a phenyl group or a heterocycle containing one or two nitrogen atoms, optionally substituted with one or more substituents selected from the group consisting of halogen, alkyl, alkoxy, nitro, carboxyl, hydroxyl, sulfone, sulfonic and sulfonate groups; - Y represent a nitrogen atom or a group CR, wherein R represents a hydrogen atom or a substituent selected from the group consisting of halogen, alkyl, phenyl groups, optionally substituted with one or several substituents selected from the group consisting of halogen, alkyl, alkoxy, nitro, carboxyl, hydroxyl, sulfone, sulfonic and sulfonate groups;
A process for producing a granular composition comprising a plurality of solidified melt granules including a non-steroidal anti-inflammatory drug (NSAID) and paracetamol, the process comprising the steps of: (a) forming a melt mixture by mixing a molten NSAID free acid and paracetamol, optionally with one or more excipients; and (b) forming the melt mixture into solidified melt granules, wherein the paracetamol is present in an amount of greater than or equal to 40% by weight and less than or equal to 80% by weight of the solidified melt granules, based on the total weight of the solidified melt granules. (a) forming a melt mixture by mixing a molten NSAID free acid and paracetamol, optionally with one or more excipients; and (b) forming the melt mixture into solidified melt granules, wherein the paracetamol is present in an amount of greater than or equal to 40% by weight and less than or equal to 80% by weight of the solidified melt granules, based on the total weight of the solidified melt granules.
A reinforced ion-conducting membrane, suitable for use in a membrane electrode assembly of a fuel cell, comprising: a planar reinforcing component which comprises a porous polymer material; an ion-conducting component embedded in at least a region of the planar reinforcing component, which ion-conducting component comprises an ion-conducting polymer material; linking groups which are chemically bonded to both the planar reinforcing component and the ion-conducting component; wherein the linking groups are non-polymeric; and the linking groups comprise a nitrogen containing moiety; and the linking groups have a different chemical structure to the monomer units of the ion-conducting component. a planar reinforcing component which comprises a porous polymer material; an ion-conducting component embedded in at least a region of the planar reinforcing component, which ion-conducting component comprises an ion-conducting polymer material; linking groups which are chemically bonded to both the planar reinforcing component and the ion-conducting component; wherein the linking groups are non-polymeric; and the linking groups comprise a nitrogen containing moiety; and the linking groups have a different chemical structure to the monomer units of the ion-conducting component.
Sealing device for sealing a feedthrough for a medical instrument, with: a first sealing membrane made of an elastic material and having a first slit; a second sealing membrane made of an elastic material and having a second slit, wherein the first sealing membrane and the second sealing membrane lie flat on each other, wherein the first sealing membrane and the second sealing membrane are arranged such that the first slit and the second slit are not parallel to each other, wherein the first slit and the second slit are each unbranched, characterized in that the first sealing membrane and the second sealing membrane are each bulged in a dome shape at least in a central area. a first sealing membrane made of an elastic material and having a first slit; a second sealing membrane made of an elastic material and having a second slit, wherein the first sealing membrane and the second sealing membrane lie flat on each other, wherein the first sealing membrane and the second sealing membrane are arranged such that the first slit and the second slit are not parallel to each other, wherein the first slit and the second slit are each unbranched, characterized in that the first sealing membrane and the second sealing membrane are each bulged in a dome shape at least in a central area.
A method for secure wireless communications by an eNode B, eNB, of a wireless wide area network, WWAN, that shares a secure network with a wireless local area network, WLAN, access point, AP, comprising: establishing a secure WWAN connection with a user equipment, UE; communicating with the AP to derive a security context for the UE for the WLAN, based on a security context for the WWAN, wherein the security context for the UE for the WLAN comprises a Pairwise Master Key, PMK; communicating the PMK to the AP. establishing a secure WWAN connection with a user equipment, UE; communicating with the AP to derive a security context for the UE for the WLAN, based on a security context for the WWAN, wherein the security context for the UE for the WLAN comprises a Pairwise Master Key, PMK; communicating the PMK to the AP.
A vehicle having an electric motor and a pack (107, 126) for storing energy, said vehicle configured having: a first seat configured to face forward; a compartment, for receiving the pack, wherein said compartment is configured: as a cage for functioning as a torsion box, and integral with the vehicle structure and/or body and behind the first seat; and to extend laterally across the vehicle substantially perpendicular to its longitudinal axis, wherein the height of the compartment extends in a vertical direction between a lowermost point of the compartment that it is beneath the lowest point of the first seat adjacent to the compartment, and an uppermost surface of the compartment that is above at least one of: the top of the seat back of the first seat; the maximum height of a cushion of the seat in the first seat in a first row; and an average height of a seat cushion in the first seat in a first row; and a hip-point of the seats in the first row, characterized in that: the compartment includes reinforcing features, including walls that form a firewall, said firewall connected to body sides that create a structure for resisting torsional bending forces experienced by the vehicle in use. a first seat configured to face forward; a compartment, for receiving the pack, wherein said compartment is configured: as a cage for functioning as a torsion box, and integral with the vehicle structure and/or body and behind the first seat; and to extend laterally across the vehicle substantially perpendicular to its longitudinal axis, wherein the height of the compartment extends in a vertical direction between a lowermost point of the compartment that it is beneath the lowest point of the first seat adjacent to the compartment, and an uppermost surface of the compartment that is above at least one of: the top of the seat back of the first seat; the maximum height of a cushion of the seat in the first seat in a first row; and an average height of a seat cushion in the first seat in a first row; and a hip-point of the seats in the first row, as a cage for functioning as a torsion box, and integral with the vehicle structure and/or body and behind the first seat; and to extend laterally across the vehicle substantially perpendicular to its longitudinal axis, wherein the height of the compartment extends in a vertical direction between a lowermost point of the compartment that it is beneath the lowest point of the first seat adjacent to the compartment, and an uppermost surface of the compartment that is above at least one of: the top of the seat back of the first seat; the maximum height of a cushion of the seat in the first seat in a first row; and an average height of a seat cushion in the first seat in a first row; and a hip-point of the seats in the first row, the top of the seat back of the first seat; the maximum height of a cushion of the seat in the first seat in a first row; and an average height of a seat cushion in the first seat in a first row; and a hip-point of the seats in the first row,
A kit for creating a stem cell bank, comprising: a cell culture substrate comprising a laminin and a cadherin, wherein the laminin is an intact protein or a protein fragment, and wherein the laminin is laminin-521 or laminin-511; a cell culture medium; a cell splitting solution; a freezing medium; and a HLA serotype analyzer. a cell culture substrate comprising a laminin and a cadherin, wherein the laminin is an intact protein or a protein fragment, and wherein the laminin is laminin-521 or laminin-511; a cell culture medium; a cell splitting solution; a freezing medium; and a HLA serotype analyzer.
Device for converting a DC voltage Into an AC voltage and vice versa comprising a control system to control the voltage conversion and comprising at least one phase leg with a first voltage source connected in series between a first DC terminal and a first AC terminal and with a second voltage source connected in series between the first AC terminal and a second DC terminal, where each of the voltage sources comprises at least a first and a second submodule in series-connection, each submodule comprising at least two power electronic switches connected in parallel with at least one capacitor, characterized in that the control system comprises a central control unit and as many subunits as submodules, where the central control unit transmits to each subunit a reference AC voltage (ua_ref) and a switching carrier signal (s_sw) and where each subunit controls the switching of the power electronic switches of one of the submodules according to a PWM pattern so that each time the switching carrier signal (s_sw) crosses the reference AC voltage (ua_ref) a change in the state of the corresponding submodule from a state one to a state two or vice versa is initiated, where In state two the voltage across the capacitor and In state one a zero voltage Is applied to output terminals (26, 27) of the corresponding submodule, wherein the central control unit transmits the same reference AC voltage (ua_ref) and the same switching carrier signal (s_sw) to all subunits belonging to the same voltage source (Uvp1, Uvn1).
A fastening system for installing a swing door, sectional door or overhead door, comprising: - a profile strip, having a profile wall, which is to be fastened to a building surface structure, - a rail plate a first plate portion of which is to be fastened to the profile wall, and a second plate portion, - a recess for partially accommodating a fastening member (8-1; 8-2) provided at a dividing line between the two plate portions (5-1, 5-2), which dividing line is a bending line, wherein the second plate portion is recessed with respect to the first plate portion, and whereby the recess has the shape of a mushroom the head of which offers room to partially accommodate the fastening member (8-1,8-2), and the stem of the said mushroom forms a slot onto which the remaining part of the fastening member (8-1,8-2) is clamped, - a runner profile for moving said door therein, the runner profile being fastened, in the vicinity of the profile strip, to the profile wall of the profile strip by means of the rail plate and the fastening member (8-1; 8-2), characterised in that: - the second plate portion, in the fastened state, projects at least partly beyond the edge of the profile wall, and the said second plate portion being recessed with respect to the first plate portion is recessed with respect to the first plate portion over a distance which corresponds to the thickness of the profile wall, - such that the part of the runner profile mounted to the profile wall through the rail plate is located in the same plane of the profile wall as the lower part of the runner profile which is mounted directly to the profile wall. - a profile strip, having a profile wall, which is to be fastened to a building surface structure, - a rail plate a first plate portion of which is to be fastened to the profile wall, and a second plate portion, - a recess for partially accommodating a fastening member (8-1; 8-2) provided at a dividing line between the two plate portions (5-1, 5-2), which dividing line is a bending line, wherein the second plate portion is recessed with respect to the first plate portion, and whereby the recess has the shape of a mushroom the head of which offers room to partially accommodate the fastening member (8-1,8-2), and the stem of the said mushroom forms a slot onto which the remaining part of the fastening member (8-1,8-2) is clamped, - a runner profile for moving said door therein, the runner profile being fastened, in the vicinity of the profile strip, to the profile wall of the profile strip by means of the rail plate and the fastening member (8-1; 8-2), - the second plate portion, in the fastened state, projects at least partly beyond the edge of the profile wall, and the said second plate portion being recessed with respect to the first plate portion is recessed with respect to the first plate portion over a distance which corresponds to the thickness of the profile wall, - such that the part of the runner profile mounted to the profile wall through the rail plate is located in the same plane of the profile wall as the lower part of the runner profile which is mounted directly to the profile wall.