mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a functionalized polymer, the method comprising the steps of: (i) polymerizing monomer with an anionic initiator to form a reactive polymer; and (ii) reacting the reactive polymer with a nitrile compound containing a protected amino group defined by the formula I: where R 1 is a divalent organic group, and R 2 and R 3 are each independently a monovalent organic group or a hydrolyzable group, or R 2 and R 3 join to form a divalent organic group including one or more hydrolyzable groups, with the proviso that R 1 is an acyclic divalent organic group, a heterocyclic divalent organic group, a non-aromatic cyclic divalent organic group that is devoid of heteroatoms, or a divalent organic group containing an aromatic ring that is devoid of heteroatoms so long as, where R 1 is a divalent organic group containing an aromatic ring that is devoid of heteroatoms, the protected amino group is not directly attached to the aromatic ring. (i) polymerizing monomer with an anionic initiator to form a reactive polymer; and (ii) reacting the reactive polymer with a nitrile compound containing a protected amino group defined by the formula I: where R 1 is a divalent organic group, and R 2 and R 3 are each independently a monovalent organic group or a hydrolyzable group, or R 2 and R 3 join to form a divalent organic group including one or more hydrolyzable groups, with the proviso that R 1 is an acyclic divalent organic group, a heterocyclic divalent organic group, a non-aromatic cyclic divalent organic group that is devoid of heteroatoms, or a divalent organic group containing an aromatic ring that is devoid of heteroatoms so long as, where R 1 is a divalent organic group containing an aromatic ring that is devoid of heteroatoms, the protected amino group is not directly attached to the aromatic ring.
A test facility (installation) for carrying out a fire stress test on a water flow valve and/or on a water flow valve system, in particular on a wet alarm valve and/or on a wet alarm valve station, wherein the test facility has at least one feed line and at least one discharge line, and wherein the test facility has at least one receiving means for receiving a liquid fuel, wherein the receiving means is designed in the shape of a trough or box, wherein the water flow valve can be fluidically connected in a test state between a line end of the feed line on the one hand and a line end of the discharge line on the other hand, wherein the line ends (6, 7) are designed and/or aligned in such a way that the water flow valve can be connected in a vertical installation position between the line ends (6, 7) in the test state, wherein the feed line and the discharge line are aligned at least substantially vertically, wherein the test facility can be connected to a water supply device or has a water supply device so that a water flow can flow through the water flow valve in the test state, and wherein the receiving means has at least one tubular guide section via which the feed line, separate from the fuel, is guided through the receiving means.
A multiple spark route for lightning protection, consisting of spark gaps arranged between connecting contact plates and contact plates with connecting means for electrical conductors, an insulant housing being arranged that includes a plurality of chambers (2, 3, 4) insulated from each other and being open toward a housing side and where, adjacent to the housing bottom, respectively, a connecting contact plate and thereon a spark gap contacting the latter are inserted, from the connecting contact plates, respectively, connecting means for electrical conductors extending through the housing wall to the outside of the insulant housing, the open housing side being covered by a first contact plate of an electrically conductive material that is contacted with the spark gaps on their side facing away from the housing bottom and the connecting contact plates and being connected to the insulant housing by connection means, the first contact plate including connecting means for electrical conductors, characterized by that each spark gap (7, 10) consists of stacked single spark routes in the form of ring or disk-shaped electrode plates, between which ring-shaped insulant disks are arranged, from the chamber bottom a spike projecting centrally to the chamber (2, 3, 4), on which the electrode plates provided with a matching hole and the insulant disks are threaded.
A vehicle with a flat seat, the vehicle comprising: a floor portion having a leg groove recessed downward from a surface of the floor portion; a seatback disposed on the floor portion; a seat cushion disposed on the floor portion ahead of the seatback; and a leg cushion disposed in the leg groove of the floor portion, and configured for covering the leg groove to form a bottom of the flat seat with the seat cushion and the floor portion when unfolded, and opening the leg groove when stowed. a floor portion having a leg groove recessed downward from a surface of the floor portion; a seatback disposed on the floor portion; a seat cushion disposed on the floor portion ahead of the seatback; and a leg cushion disposed in the leg groove of the floor portion, and configured for covering the leg groove to form a bottom of the flat seat with the seat cushion and the floor portion when unfolded, and opening the leg groove when stowed.
An elevation conveyance system for transporting a payload substantially vertically and transversely to a preselected release location ("X"), the system comprising: a track assembly comprising a substantially vertical track; at least one bin assembly in which the payload is receivable; at least one car assembly configured for movement along the track, said at least one car assembly comprising: a housing subassembly comprising a means for engaging the track to permit movement of said at least one car assembly along the track; a conveyor subassembly for transporting the payload substantially transversely relative to the track; and said at least one bin assembly being receivable in the housing subassembly, characterised in that the bin assembly is configured to release the payload onto the conveyor subassembly for substantially transverse transportation of the payload to the preselected release location ("X"). a track assembly comprising a substantially vertical track; at least one bin assembly in which the payload is receivable; at least one car assembly configured for movement along the track, said at least one car assembly comprising: a housing subassembly comprising a means for engaging the track to permit movement of said at least one car assembly along the track; a conveyor subassembly for transporting the payload substantially transversely relative to the track; and a housing subassembly comprising a means for engaging the track to permit movement of said at least one car assembly along the track; a conveyor subassembly for transporting the payload substantially transversely relative to the track; and said at least one bin assembly being receivable in the housing subassembly, characterised in that the bin assembly is configured to release the payload onto the conveyor subassembly for substantially transverse transportation of the payload to the preselected release location ("X").
Connection assembly for releasably connecting a first housing part to at least one second housing part of the housing of a crusher for comminuting crushed material, wherein provision is made of an expansion element which is introducible into a cylindrical receptacle opening which along an opening axis extends at least partially into both housing parts (10, 11), wherein the expansion element by means of a furthermore provided conical element is capable of being braced outward and thus radially to the opening axis against the internal sides (10a, 11a) of the receptacle opening, characterized in that the expansion element has a pot shape having an interior that is open to one side, wherein the conical element sits in the interior of the pot-shaped expansion element, and wherein the expansion element has a conical internal contour which sits on a conical external contour of the conical element, and wherein screw elements by way of which the conical element is retractable into the expansion element while expanding the external cylindrical lateral surface of the expansion element are provided.
A three-dimensional, 3D, neuromorphic accelerator, comprising a plurality of tiers stacked atop of each other to form the 3D, neuromorphic accelerator, the 3D, neuromorphic accelerator further comprising: a respective plurality of cores defined on each tier of the plurality of tiers, each core comprising at least: a processing element; a non-volatile memory; a communications module, and a local power manager; the 3D, neuromorphic accelerator further comprising: a global power manager configured to coordinate with each local power manager of the neuromorphic accelerator to provide dynamic voltage frequency scaling, DVFS, and power collapse control for each tier of the plurality of tiers, wherein each local power manager is configured to determine a power state of adjacent cores using a handshaking circuitry configured to communicate core-to-core to decide the power state of adjacent cores, each local power manager further configured to adaptively scale the voltage of its own core based on the power state of the adjacent cores. a respective plurality of cores defined on each tier of the plurality of tiers, each core comprising at least: a processing element; a non-volatile memory; a communications module, and a local power manager; the 3D, neuromorphic accelerator further comprising: a global power manager configured to coordinate with each local power manager of the neuromorphic accelerator to provide dynamic voltage frequency scaling, DVFS, and power collapse control for each tier of the plurality of tiers, wherein each local power manager is configured to determine a power state of adjacent cores using a handshaking circuitry configured to communicate core-to-core to decide the power state of adjacent cores, each local power manager further configured to adaptively scale the voltage of its own core based on the power state of the adjacent cores. a processing element; a non-volatile memory; a communications module, and a local power manager; the 3D, neuromorphic accelerator further comprising: a global power manager configured to coordinate with each local power manager of the neuromorphic accelerator to provide dynamic voltage frequency scaling, DVFS, and power collapse control for each tier of the plurality of tiers, wherein each local power manager is configured to determine a power state of adjacent cores using a handshaking circuitry configured to communicate core-to-core to decide the power state of adjacent cores, each local power manager further configured to adaptively scale the voltage of its own core based on the power state of the adjacent cores.
A method for monitoring a lymphoid neoplasm in a patient with defined cancer clonotypes comprising the steps of: (a) determining a profile of recombined DNA sequences in T-cells and/or B-cells of a sample obtained from the patient, wherein the profile is determined using next generation sequencing; and (b) determining the levels of the defined cancer clonotypes in the profile to monitor the lymphoid neoplasm. (a) determining a profile of recombined DNA sequences in T-cells and/or B-cells of a sample obtained from the patient, wherein the profile is determined using next generation sequencing; and (b) determining the levels of the defined cancer clonotypes in the profile to monitor the lymphoid neoplasm.
A micro-electromechanical device comprising: a substrate; a contact disposed on said substrate; and a conductive element disposed on said substrate including an anchor extending from said substrate and a beam having an end coupled to said anchor so as to be cantilevered therefrom and composed substantially of metallic material so that the time-dependent plastic deformation of the conductive element is determined by the time-dependent plastic deformation of constituent metallic material of the conductive element, said conductive element being configured to be deformable between a first position in which said conductive element is separated from said contact by a separation distance and a second position in which said conductive element contacts said contact and stores mechanical energy, characterised in that appropriate material and dimensions of said conductive element have been selected such that, subsequent to being deformed into the second position at a temperature between about room temperature and about half of a melting temperature of said metallic material for a cumulative time of at least 10 7 seconds, the separation distance in the absence of external forces varies by less than 20 percent over the cumulative time; wherein said metallic material includes an alloy of at least 65 atomic percent nickel and at least 1 atomic percent tungsten; and the beam includes a first beam portion coupled to the anchor having a width w B1 and a second beam portion having a width w B2, where w B2 is greater than w B1. a substrate; a contact disposed on said substrate; and a conductive element disposed on said substrate including an anchor extending from said substrate and a beam having an end coupled to said anchor so as to be cantilevered therefrom and composed substantially of metallic material so that the time-dependent plastic deformation of the conductive element is determined by the time-dependent plastic deformation of constituent metallic material of the conductive element, said conductive element being configured to be deformable between a first position in which said conductive element is separated from said contact by a separation distance and a second position in which said conductive element contacts said contact and stores mechanical energy, characterised in that appropriate material and dimensions of said conductive element have been selected such that, subsequent to being deformed into the second position at a temperature between about room temperature and about half of a melting temperature of said metallic material for a cumulative time of at least 10 7 seconds, the separation distance in the absence of external forces varies by less than 20 percent over the cumulative time; wherein said metallic material includes an alloy of at least 65 atomic percent nickel and at least 1 atomic percent tungsten; and the beam includes a first beam portion coupled to the anchor having a width w B1 and a second beam portion having a width w B2, where w B2 is greater than w B1.
Circuit apparatus with LED diodes comprising a plurality of circuit branches, each circuit branch (10, 20; 101-104) of said plurality comprising at least one LED diode (D1, D20, D21, D10), said apparatus comprising a device for the feeding of said plurality of circuit branches, each circuit branch (10, 20; 101-104) of said plurality being connected singularly to said feeding device, said feeding device comprising control means suitable for controlling the feeding of each circuit branch (10, 20;101-104) of the plurality of circuit branches independently from the other circuit branches of the plurality, said control means being suitable for controlling the feeding of said plurality of circuit branches in succession and for the duration of an at least one time period (T1, T2...Tn) of a predefined time sequence of time periods, said feeding device comprising feeding means suitable for supplying a feeding current (I10, I20) to each single circuit branch (10, 20;101-104) of said plurality, said control means comprising a plurality of switches (S1, S2; S101-S104) positioned between said circuit branches (10, 20; 101-104) and said feeding means, characterised in that said control means comprise pulse width modulation means directly connected to said plurality of circuit branches (10, 20;101-104) downstream the at least one LED diode of the branches and suitable for driving said plurality of switches (S1, S2; S101-S104) so as to determine the turning-on of each switch of said plurality of switches (S1, S2; S101-S104) in succession and for the duration of a time period (T1,..Tn) of a predefined time sequence of time periods, characterised in that said pulse width modulation means comprise a plurality of operational error amplifiers (31, P101-P104) each one of which has the input terminals connected to a circuit branch (10, 101-103) of said plurality of circuit branches and to its adjacent circuit branch (20, 102-104), a plurality of comparators (32, P121-P123) each one suitable for comparing the output signal of the respective error amplifier (31, P101-P104) with a sawtooth signal, the signals in output to said plurality of comparators (32, P121-P123) being suitable for determining the drive signals (Sp, P1-P4) of said plurality of switches (S1, S2; S101-S104).
A wound care device comprising: a fabric having a wound contact surface and a wound fluid reservoir surface, wherein said wound contact surface is comprised primarily of hydrophobic fiber and said wound fluid reservoir surface is comprised primarily of hydrophilic fiber, said hydrophobic and hydrophilic fibers being intermeshed together in a jersey knit construction, wherein the jersey knit is a circular or flat-knit fabric made with a plain stitch in which the loops intermesh in only one direction; and wherein said wound care device transports wound fluid uni-directionally from said wound contact surface to said wound fluid reservoir surface upon exposure to a wound, wherein the fabric is a single layer. a fabric having a wound contact surface and a wound fluid reservoir surface, wherein said wound contact surface is comprised primarily of hydrophobic fiber and said wound fluid reservoir surface is comprised primarily of hydrophilic fiber, said hydrophobic and hydrophilic fibers being intermeshed together in a jersey knit construction, wherein the jersey knit is a circular or flat-knit fabric made with a plain stitch in which the loops intermesh in only one direction; and wherein said wound care device transports wound fluid uni-directionally from said wound contact surface to said wound fluid reservoir surface upon exposure to a wound, wherein the fabric is a single layer.
An O/W emulsion composition comprising the following components (a) and (b): (a) organic UV absorbers comprising the following components,, and: octocrylene, ethylhexyl methoxycinnamate, 4-t-butyl-4'-methoxydibenzoylmethane; and (b) a polyoxyethylene/polyoxyalkylene alkyl ether block polymer represented by the following formula; (Compound 1) R 1 O- m- n-H wherein R 1 is a hydrocarbon group having 16 to 18 carbon atoms; PO is an oxypropylene group, EO is an oxyethylene group, and PO and EO are added to each other in block form; and m and n respectively represent average addition mole number of PO and EO, 4≤m<70, 10≤n<70, and m< n; wherein average particle size of the emulsion particles comprising the component (a) is 800 nm or less, and wherein the value of {amount of + amount of}/amount of is 2 or more. (a) organic UV absorbers comprising the following components,, and: octocrylene, ethylhexyl methoxycinnamate, 4-t-butyl-4'-methoxydibenzoylmethane; and octocrylene, ethylhexyl methoxycinnamate, 4-t-butyl-4'-methoxydibenzoylmethane; and (b) a polyoxyethylene/polyoxyalkylene alkyl ether block polymer represented by the following formula; (Compound 1) R 1 O- m- n-H wherein R 1 is a hydrocarbon group having 16 to 18 carbon atoms; PO is an oxypropylene group, EO is an oxyethylene group, and PO and EO are added to each other in block form; and m and n respectively represent average addition mole number of PO and EO, 4≤m<70, 10≤n<70, and m< n; wherein average particle size of the emulsion particles comprising the component (a) is 800 nm or less, and wherein the value of {amount of + amount of}/amount of is 2 or more.
An order processing method, applied to a server, characterized by comprising: obtaining a free slot capacity and a preset virtual capacity of a workstation; and determining a to-be-processed order of the workstation according to the free slot capacity and the virtual capacity, wherein a quantity of the to-be-processed order is a sum of the free slot capacity and the virtual capacity; generating an outbound instruction according to the to-be-processed order; sending the outbound instruction to a transfer device to transfer goods in the to-be-processed order out of a warehouse; wherein the to-be-processed order comprises a currently processed order and a delayed processed order, where a quantity of the currently processed order is the free slot capacity, and a quantity of the delayed processed order is the virtual capacity; wherein the outbound instruction includes a third outbound instruction which is used for causing the transfer device to move goods in the currently processed order to the workstation for picking, and causing the transfer device to move goods in the delayed processed order to a pre-storage area for waiting, and the goods in the currently processed order are moved to the workstation preferentially. obtaining a free slot capacity and a preset virtual capacity of a workstation; and determining a to-be-processed order of the workstation according to the free slot capacity and the virtual capacity, wherein a quantity of the to-be-processed order is a sum of the free slot capacity and the virtual capacity; generating an outbound instruction according to the to-be-processed order; sending the outbound instruction to a transfer device to transfer goods in the to-be-processed order out of a warehouse; wherein the to-be-processed order comprises a currently processed order and a delayed processed order, where a quantity of the currently processed order is the free slot capacity, and a quantity of the delayed processed order is the virtual capacity; wherein the outbound instruction includes a third outbound instruction which is used for causing the transfer device to move goods in the currently processed order to the workstation for picking, and causing the transfer device to move goods in the delayed processed order to a pre-storage area for waiting, and the goods in the currently processed order are moved to the workstation preferentially.
An apparatus for storing data comprising a solid state data storage device, SSD, and a Printed Circuit Board, PCB, upon which the SSD is mounted, wherein the apparatus further comprises means for causing physical damage to the SSD located beneath the SSD in the event that at least one predetermined condition is met, wherein the apparatus further comprises a hole through the PCB positioned under the SSD and the means for causing physical damage to the SSD is located within the hole.
Process for producing a welded joint between a high-strength aluminium alloy with a copper proportion as a first metal and a second metal, wherein the welded joint is produced by Cold Metal Transfer welding, characterized in that the high-strength aluminium alloy with the copper proportion of the first metal is a 7075 aluminium alloy or is a 7020 aluminium alloy, wherein a welding wire which is an aluminium alloy comprising the alloying proportions Si < 0.5%, Fe < 0.7%, Cu < 0.2%, Mn 0.2-2%, Mg 1.0-8.0%, Cr < 0.4%, Ti < 0.3%, Zn < 0.4%, Zr 0.01-0.4% is used for the CMT welding.