mhurhangee/ep-ind-claims huggingface dataset:
A method of separating an electronic assembly from a multilayer stack of electronic components that includes the electronic assembly, a substrate, and a sacrificial anode portion that is located between the electronic assembly and the substrate and that operatively attaches the electronic assembly to the substrate, wherein the electronic assembly includes a cathode portion and a device portion, the method comprising: locating the multilayer stack within an electrically conductive fluid to form an electrochemical cell; generating a potential difference between the cathode portion and the sacrificial anode portion such that the cathode portion forms a cathode of the electrochemical cell and the sacrificial anode portion forms an anode of the electrochemical cell; and separating the electronic assembly from the substrate by electrochemically oxidizing the sacrificial anode portion to dissolve the sacrificial anode portion within the electrically conductive fluid, characterized in that the electronic assembly further includes a sacrificial photovoltaic cell that is located between and in electrical and mechanical communication with the cathode portion and the sacrificial anode portion, and in that the generating includes: generating the potential difference with the sacrificial photovoltaic cell, and wherein the method further comprises: directing electromagnetic radiation onto the sacrificial photovoltaic cell to initiate the generating. locating the multilayer stack within an electrically conductive fluid to form an electrochemical cell; generating a potential difference between the cathode portion and the sacrificial anode portion such that the cathode portion forms a cathode of the electrochemical cell and the sacrificial anode portion forms an anode of the electrochemical cell; and separating the electronic assembly from the substrate by electrochemically oxidizing the sacrificial anode portion to dissolve the sacrificial anode portion within the electrically conductive fluid, characterized in that the electronic assembly further includes a sacrificial photovoltaic cell that is located between and in electrical and mechanical communication with the cathode portion and the sacrificial anode portion, and in that the generating includes: generating the potential difference with the sacrificial photovoltaic cell, and wherein the method further comprises: directing electromagnetic radiation onto the sacrificial photovoltaic cell to initiate the generating. generating the potential difference with the sacrificial photovoltaic cell, and wherein the method further comprises: directing electromagnetic radiation onto the sacrificial photovoltaic cell to initiate the generating.
An evaporation source for a metal or a metal alloy, comprising: an evaporation crucible configured to evaporate the metal or metal alloy; a distribution pipe in fluid communication with the evaporation crucible comprising one or more outlets provided along the length of the distribution pipe and a first outer tube and a first inner tube, wherein the distribution pipe and the evaporation crucible are provided as one single piece or are non-detachably connected. an evaporation crucible configured to evaporate the metal or metal alloy; a distribution pipe in fluid communication with the evaporation crucible comprising one or more outlets provided along the length of the distribution pipe and a first outer tube and a first inner tube, wherein the distribution pipe and the evaporation crucible are provided as one single piece or are non-detachably connected.
A telescopic frame of an integrated vehicle-tractor, comprising a front frame, a rear frame, a frame telescopic connecting hook, a comprehensive control arm, a comprehensive control arm shaft, a comprehensive control arm hydrocylinder and a telescopic hydrocylinder, wherein the front end of the rear frame and the front frame can be inserted telescopically relatively; the rear end of the rear frame is rotatably provided with the comprehensive control arm shaft; the comprehensive control arm comprises a principal arm, a telescopic arm and a hook arm; one end of the principal arm is hinged to the comprehensive control arm shaft, and the other end is inserted with one end of the telescopic arm telescopically relatively; the other end of the telescopic arm is connected with one end of the hook arm; the other end of the hook arm is in a hooked shape; the frame telescopic connecting hook is installed on the front frame, and hooks the telescopic arm; a cylinder body of the comprehensive control arm hydrocylinder is hinged to the rear frame; a piston is hinged with the principal arm; the comprehensive control arm is driven by the comprehensive control arm hydrocylinder to turn over; the telescopic hydrocylinder is placed in the telescopic arm; the cylinder body is installed on the inner surface of the principal arm; the piston is connected with the inner surface of the telescopic arm; and the front frame and the rear frame (1, 2) are driven to be relatively telescopic through the telescopic movement of the telescopic hydrocylinder.
A system for managing network communications, the system comprising: a network comprising a plurality of nodes (102A-N), wherein each of the nodes comprises at least one processor and a transceiver communicatively coupled to the at least one processor, wherein the network is configured as a modified time division multiple access (TDMA) network, wherein one node of the network at a time for a given frequency transmits to other nodes of the network as allowed by the modified TDMA network, wherein the modified TDMA network lacks predefined synchronized slot boundaries that would otherwise define transmit allocation intervals, wherein the modified TDMA network lacks a predefined allocation of a number of slots for each node per cycle, wherein the modified TDMA network utilizes a transmission sequence indicating an order in which each node of the network is to transmit, wherein any node of the plurality of nodes is configured to generate and transmit the transmission sequence, wherein the nodes of the modified TDMA network are configured to transmit packets each transmitted with a counter indicating a number of remaining packets from a particular node, wherein when the counter reaches a terminal value a subsequent node in the transmission sequence is allowed to transmit, wherein the at least one processor is configured to: collect data received from each other node of the network during a data collection phase of a given modified TDMA cycle, the collected data including information of connectivity between pairs of nodes of the network; and output the collected data for transmission to each other node of the network during a data distribution phase of the given modified TDMA cycle. collect data received from each other node of the network during a data collection phase of a given modified TDMA cycle, the collected data including information of connectivity between pairs of nodes of the network; and output the collected data for transmission to each other node of the network during a data distribution phase of the given modified TDMA cycle.
A pet container for transporting pets, in particular for air shipment of pets, comprising an outer shell having a top portion and a bottom portion, wherein the outer shell defines a pet chamber for accommodating a pet, wherein the outer shell has an opening formed therein for providing access to the pet chamber and a door for opening and closing the opening, the door having an open state and a closed state; a water tank provided inside the pet chamber; and a climate compartment for receiving a cooling or heating medium therein, wherein the climate compartment is provided below the pet chamber and has an orifice for horizontally inserting a cooling or heating medium into and removing a cooling or heating medium from the climate compartment, characterized in that the water tank has at least one protrusion configured to be received in a respective hole in the door when the door is in the closed state so as to allow reading the fluid level in the water tank. an outer shell having a top portion and a bottom portion, wherein the outer shell defines a pet chamber for accommodating a pet, wherein the outer shell has an opening formed therein for providing access to the pet chamber and a door for opening and closing the opening, the door having an open state and a closed state; a water tank provided inside the pet chamber; and a climate compartment for receiving a cooling or heating medium therein, wherein the climate compartment is provided below the pet chamber and has an orifice for horizontally inserting a cooling or heating medium into and removing a cooling or heating medium from the climate compartment, characterized in that the water tank has at least one protrusion configured to be received in a respective hole in the door when the door is in the closed state so as to allow reading the fluid level in the water tank.
A dummy structure for a printed wiring board, the structure comprising: a unit shape defined on the PWB, the unit shape configured to, based on a visual inspection thereof, provide an indication of: etching of a PWB circuit element within a desired tolerance range, over etching of the PWB circuit element, and under etching of the PWB circuit element, the unit shape comprising: a pair of isosceles triangle regions having opposing base sides; and for a case of the PWB circuit element etched within the desired tolerance range, apex vertices of the triangle regions meet at a common apex point. a pair of isosceles triangle regions having opposing base sides; and for a case of the PWB circuit element etched within the desired tolerance range, apex vertices of the triangle regions meet at a common apex point.
A method of identifying a visited public land mobile network, VPLMN, the method comprising: a proximity service, ProSe, function in a home PLMN, HPLMN, of an announcing user equipment, UE, receiving a match report message comprising a ProSe Application Code from a ProSe function in a HPLMN of a monitoring UE; and the ProSe function in the HPLMN of the announcing UE transmitting a match response message comprising a ProSe Application ID Name of the Prose Application Code to the ProSe function in the HPLMN of the monitoring UE to respond to the match report message, characterized in that the ProSe Application ID of the ProSe Application Code is PLMN specific, and the ProSe function in the HPLMN of the announcing UE includes a PLMN ID of a VPLMN registered by the announcing UE in the match response message. a proximity service, ProSe, function in a home PLMN, HPLMN, of an announcing user equipment, UE, receiving a match report message comprising a ProSe Application Code from a ProSe function in a HPLMN of a monitoring UE; and the ProSe function in the HPLMN of the announcing UE transmitting a match response message comprising a ProSe Application ID Name of the Prose Application Code to the ProSe function in the HPLMN of the monitoring UE to respond to the match report message, characterized in that the ProSe Application ID of the ProSe Application Code is PLMN specific, and the ProSe function in the HPLMN of the announcing UE includes a PLMN ID of a VPLMN registered by the announcing UE in the match response message.
A coupling device for connecting wagon elements of a freight wagon, comprising a coupling rod and two linkages arranged at the ends of the coupling rod for connecting the coupling rod to one wagon element each, with at least one of the linkages comprising a force transmission body and a first and a second damping element, which are arranged on both sides of the force transmission body, characterized in that the coupling rod has, at each end, an end section with a diameter that is smaller in comparison to a central area of the coupling rod and only the following elements are slid onto the end sections in the following order, as viewed from the central area of the coupling rod: - a first spring distancing disk, - the first damping element designed as a single-piece spring element, - the force transmission body, - the second damping element designed as a single-piece spring element, - a second spring distancing disk, - a threaded sleeve locked on a thread at the end of the end section facing away from the central area of the coupling rod, wherein all components of the first and the second single-piece spring elements (6, 7) are, in each case, permanently connected to one another, and the first and the second single-piece spring elements (6, 7) have at least two metal discs and one elastomeric plastic glued or vulcanized on between them. the coupling rod has, at each end, an end section with a diameter that is smaller in comparison to a central area of the coupling rod and only the following elements are slid onto the end sections in the following order, as viewed from the central area of the coupling rod: - a first spring distancing disk, - the first damping element designed as a single-piece spring element, - the force transmission body, - the second damping element designed as a single-piece spring element, - a second spring distancing disk, - a threaded sleeve locked on a thread at the end of the end section facing away from the central area of the coupling rod, - a first spring distancing disk, - the first damping element designed as a single-piece spring element, - the force transmission body, - the second damping element designed as a single-piece spring element, - a second spring distancing disk, - a threaded sleeve locked on a thread at the end of the end section facing away from the central area of the coupling rod, wherein all components of the first and the second single-piece spring elements (6, 7) are, in each case, permanently connected to one another, and the first and the second single-piece spring elements (6, 7) have at least two metal discs and one elastomeric plastic glued or vulcanized on between them.
An electronic device, comprising: a heat sink, a first feed unit, a printed circuit board, PCB, a middle frame, a display located on a front surface of the electronic device, a battery, and a rear cover located on a back surface of the electronic device, wherein the PCB and the battery are arranged in a space enclosed by the middle frame and the rear cover; one part of the heat sink is arranged between the PCB and the rear cover, and another part of the heat sink is arranged between the battery and the rear cover; and the heat sink is provided with a first feed point, and the first feed unit is electrically connected to the heat sink at the first feed point. a heat sink, a first feed unit, a printed circuit board, PCB, a middle frame, a display located on a front surface of the electronic device, a battery, and a rear cover located on a back surface of the electronic device, wherein the PCB and the battery are arranged in a space enclosed by the middle frame and the rear cover; one part of the heat sink is arranged between the PCB and the rear cover, and another part of the heat sink is arranged between the battery and the rear cover; and the heat sink is provided with a first feed point, and the first feed unit is electrically connected to the heat sink at the first feed point.
A compound comprising the formula wherein each L 2, L 3 and L 4 independently, is a linker; each L 1, L 5, L 6, L 7, L 8, L 9, L 10, L 11, L 12 and L 13 independently, is a linker or a suitable linking group selected from amine, amide, ether, ester, urea carbonate or urethane linking groups; each X 1, X 2, X 3 and X 4 independently, is an oxygen atom or NR; R, if present, is H or a branched or unbranched C1-C10 alkyl group; each R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13 and R 14 independently, is a branched or unbranched C1-C15 alkyl group; each PDii and PDjj, independently, is a residue selected from the group consisting of isoferulic acid, sinapinic acid, and syringic acid; aa is a value from 0 to about 80; bb is a value from 0 to about 80; cc is a value from 0 to about 80; dd is a value from 1 to about 120; ee is a value from 1 to about 120; ff is a value from 1 to about 120; gg is a value from 1 to about 120; and hh is a value from 1 to about 80. each L 2, L 3 and L 4 independently, is a linker; each L 1, L 5, L 6, L 7, L 8, L 9, L 10, L 11, L 12 and L 13 independently, is a linker or a suitable linking group selected from amine, amide, ether, ester, urea carbonate or urethane linking groups; each X 1, X 2, X 3 and X 4 independently, is an oxygen atom or NR; R, if present, is H or a branched or unbranched C1-C10 alkyl group; each R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13 and R 14 independently, is a branched or unbranched C1-C15 alkyl group; each PDii and PDjj, independently, is a residue selected from the group consisting of isoferulic acid, sinapinic acid, and syringic acid; aa is a value from 0 to about 80; bb is a value from 0 to about 80; cc is a value from 0 to about 80; dd is a value from 1 to about 120; ee is a value from 1 to about 120; ff is a value from 1 to about 120; gg is a value from 1 to about 120; and hh is a value from 1 to about 80.
A staple cartridge assembly for use with a stapling device, comprising: a staple cartridge (38; 116) having multiple groups of offset staple slots (40a-c; 118), where the slots (40a-c; 118) in each group are oriented outwardly with respect to a cartridge center axis, and staples held in the slots (40a-c; 118), and having a pair of free ends that extend from an outer surface of the cartridge (38; 116), characterized in that the slots (40a-c; 118) in each group are circularly arrayed about said axis, and the staple cartridge assembly further comprises multiple tissue-fastening rings (136, 138, 140; 150; 158; 166; 176) stacked against the outer surface of the cartridge (38; 116), each ring (136, 138, 140; 150; 158; 166; 176) having a plurality of circularly arrayed eyelets (156; 164; 174, 175; 182) for receiving therein, the free ends of the staples in a given staple group (120; 124, 126), such that one ring (136, 138, 140; 150; 158; 166; 176) is stacked against the cartridge assembly for each group of staples (120; 124, 126), and the groups of staples (120; 124, 126) are ejected in the order of the stacked rings (136, 138, 140; 150; 158; 166; 176), in an outer to inner direction. a staple cartridge (38; 116) having multiple groups of offset staple slots (40a-c; 118), where the slots (40a-c; 118) in each group are oriented outwardly with respect to a cartridge center axis, and staples held in the slots (40a-c; 118), and having a pair of free ends that extend from an outer surface of the cartridge (38; 116), characterized in that the slots (40a-c; 118) in each group are circularly arrayed about said axis, and the staple cartridge assembly further comprises multiple tissue-fastening rings (136, 138, 140; 150; 158; 166; 176) stacked against the outer surface of the cartridge (38; 116), each ring (136, 138, 140; 150; 158; 166; 176) having a plurality of circularly arrayed eyelets (156; 164; 174, 175; 182) for receiving therein, the free ends of the staples in a given staple group (120; 124, 126), such that one ring (136, 138, 140; 150; 158; 166; 176) is stacked against the cartridge assembly for each group of staples (120; 124, 126), and the groups of staples (120; 124, 126) are ejected in the order of the stacked rings (136, 138, 140; 150; 158; 166; 176), in an outer to inner direction.
Connection module for field devices in the explosion-protected area, having a housing with a plurality of control-end terminals (51,..., 54) to connect to at least one input / output module and having field-end terminals (61,..., 64) to connect to the field devices (92, 93, 94), wherein, to provide intrinsically safe pairs of field-end terminals with different characteristic values, there are different resistors (84, 85) in the housing, which are hard-wired to different field-end terminals (61,..., 64) and control-end terminals (51,..., 54) in the housing, characterised in that there is at least one series connection of resistors in the housing, a plurality of pick-ups of the series connection are connected to control-end terminals (51,..., 54) or field-end terminals (61,..., 64), there are a plurality of control-end terminals (51,..., 54) to connect a plurality of current / voltage supplies (V1, 71,..., V3, 73), and there are a plurality of field-end terminals (61,..., 64) to form a plurality of intrinsically safe pairs of field-end terminals, wherein a different resistance is effective for intrinsic safety in dependence upon respectively used terminals.
A method of preparing thermoplastics-continuous fiber hybrid composite comprising the following steps of: a) widely and uniformly stretching a bundle of glass fibers; b) heating the stretched glass fibers; c) preparing a thermoplastics-continuous fiber bonding material by binding the stretched and heated glass fibers with thermoplastics in a shape of tape; d) preparing a multi-layered thermoplastics-continuous fiber bonding material by folding the bonding material in a shape of zigzag; and e) pressing the multi-layered thermoplastics-continuous fiber bonding material, characterized in that the step c) is carried out by positioning the thermoplastics in the shape of tape on an upper portion and/or a lower portion of the heated and stretched glass fibers and the thermoplastics-continuous fiber bonding material has a structure that the glass fibers and the thermoplastics in the shape of tape are stacked or that the thermoplastics in the shape of tape, the glass fibers, and the thermoplastics in the shape of tape are stacked in order. a) widely and uniformly stretching a bundle of glass fibers; b) heating the stretched glass fibers; c) preparing a thermoplastics-continuous fiber bonding material by binding the stretched and heated glass fibers with thermoplastics in a shape of tape; d) preparing a multi-layered thermoplastics-continuous fiber bonding material by folding the bonding material in a shape of zigzag; and e) pressing the multi-layered thermoplastics-continuous fiber bonding material,
A method comprising: treating a liquid comprising a first precursor at a concentration C 1, a second precursor at a concentration C 2, a third precursor at a concentration C 3, a fourth precursor, and an additive at a concentration C 4, wherein: the first precursor comprises at least one of cesium halide wherein cesium halide is cesium iodide or cesium bromide; the second precursor comprises at least one of formamidinium halide wherein formamidinium halide is formamidinium iodide or formamidinium bromide; the third precursor comprises PbBr 2; the fourth precursor comprises PbI 2; the additive comprises at least one of methylammonium bromide (MABr), methylammonium chloride (MACl), and methylammonium iodide; the treating results in a perovskite having the formula FA x Cs 1-x Pb(I y Br 1-y) 3, where 0 < x < 1 and 0 < y < 1; each of C 1, C 2, and C 3 are independently between 0.001 M and 100 M; and at least one of C 4 /C 1 or C 4 /C 2 equals a ratio greater than zero and less than 0.5. the first precursor comprises at least one of cesium halide wherein cesium halide is cesium iodide or cesium bromide; the second precursor comprises at least one of formamidinium halide wherein formamidinium halide is formamidinium iodide or formamidinium bromide; the third precursor comprises PbBr 2; the fourth precursor comprises PbI 2; the additive comprises at least one of methylammonium bromide (MABr), methylammonium chloride (MACl), and methylammonium iodide; the treating results in a perovskite having the formula FA x Cs 1-x Pb(I y Br 1-y) 3, where 0 < x < 1 and 0 < y < 1; each of C 1, C 2, and C 3 are independently between 0.001 M and 100 M; and at least one of C 4 /C 1 or C 4 /C 2 equals a ratio greater than zero and less than 0.5.