mhurhangee/ep-ind-claims huggingface dataset:
Device for breaking rear window of a vehicle, said vehicle providing or not a roll bar, said device comprises an actuation system, normally housed in a sleeping or rest position within a space which is inner with respect to said vehicle rear window, and that can be actuated, following a collision or accident involving said vehicle, a closure element for said space housing said actuation system, provided between the latter and the rear window, said closure element characterized in that it comprises a pin for breaking the rear window, said actuation system, after its activation, striking said closure element, making it moving, along with said at least one pin, toward said rear window, said actuation system and said closure element travelling with the same speed until the end of the stroke of the actuation system, said stroke ending before the actuation system contacts the rear window, said closure element, along with said at least one pin, further prosecuting its stroke until striking the rear window, breaking the same.
A data compression method, comprising: obtaining (S101, S201), by a base station, identification information of a data compression device and a data decompression device, wherein the identification information comprises at least one of the following: an Ethernet address, an IP address, port information, or a virtual local area network identifier; generating (S102, S202) a dictionary based on the identification information; and sending (S103, S203) the dictionary to the data compression device and the data decompression device, to enable the data compression device and the data decompression device to perform data compression and data transmission based on the received dictionary. an Ethernet address, an IP address, port information, or a virtual local area network identifier; generating (S102, S202) a dictionary based on the identification information; and sending (S103, S203) the dictionary to the data compression device and the data decompression device, to enable the data compression device and the data decompression device to perform data compression and data transmission based on the received dictionary.
A method, executed by at least one processor of a computer, comprising: receiving a first set of test patterns generated for a first circuit design, a second circuit design, and a set of faults to be used for test pattern generation for the second circuit design; analyzing the first circuit design and the second circuit design to determine part of the second circuit design structurally similar to part of the first circuit design; the method is characterised by modifying the first set of test patterns to generate a second set of test patterns for the second circuit design, the modifying comprising reusing values of bits in the first set of test patterns associated with the part of the first circuit design as values of bits in the second set of test patterns associated with the part of the second circuit design; performing fault simulation on the second circuit design using the second set of test patterns and the set of faults to determine a subset of faults in the set of faults that cannot be detected by the second set of test patterns; performing test pattern generation for the subset of faults to generate a third set of test patterns for the second circuit design; and storing the second set of test patterns and the third set of test patterns in a non-transitory computer-readable media. receiving a first set of test patterns generated for a first circuit design, a second circuit design, and a set of faults to be used for test pattern generation for the second circuit design; analyzing the first circuit design and the second circuit design to determine part of the second circuit design structurally similar to part of the first circuit design; the method is characterised by modifying the first set of test patterns to generate a second set of test patterns for the second circuit design, the modifying comprising reusing values of bits in the first set of test patterns associated with the part of the first circuit design as values of bits in the second set of test patterns associated with the part of the second circuit design; performing fault simulation on the second circuit design using the second set of test patterns and the set of faults to determine a subset of faults in the set of faults that cannot be detected by the second set of test patterns; performing test pattern generation for the subset of faults to generate a third set of test patterns for the second circuit design; and storing the second set of test patterns and the third set of test patterns in a non-transitory computer-readable media.
An implantable micro-generator (970, 1070, 1170) comprising: an elongated housing (972, 1072, 1172) adapted and configured to be positioned distally within a tip (226, 326, 426) of a cardiac lead (220, 320, 420) wherein the housing has an elongated interior cavity, a first end and a second end; one or more coils (978, 1078, 1178) positioned exteriorly, interiorly or integrally along at least a portion of the housing; one or more longitudinally slidable elongated magnets (984, 1084, 1184) having a cross-sectional shape selected from the group comprising: round, triangular, tetragonal, pentagonal, hexagonal, heptagonal, octagonal, nonagonal, decagonal, oval, and ellipsoid, and suspended in the housing between at least one of the one or more coils and at least one of the first end and second end of the housing; a power wire (432, 532) in electrical communication with the one or more coils and with a medical device, wherein the micro-generator is adapted and configured to generate energy and communicate the generated energy to the medical device; and further wherein the size of the micro-generator ranges from 7 French to 20 French; characterised in that: the housing further comprises one or more of at least one of springs (1096, 1096', 1196, 1196') and bumpers (992, 992') at either one or both of the first end and the second end of the cavity of the elongated housing. an elongated housing (972, 1072, 1172) adapted and configured to be positioned distally within a tip (226, 326, 426) of a cardiac lead (220, 320, 420) wherein the housing has an elongated interior cavity, a first end and a second end; one or more coils (978, 1078, 1178) positioned exteriorly, interiorly or integrally along at least a portion of the housing; one or more longitudinally slidable elongated magnets (984, 1084, 1184) having a cross-sectional shape selected from the group comprising: round, triangular, tetragonal, pentagonal, hexagonal, heptagonal, octagonal, nonagonal, decagonal, oval, and ellipsoid, and suspended in the housing between at least one of the one or more coils and at least one of the first end and second end of the housing; a power wire (432, 532) in electrical communication with the one or more coils and with a medical device, wherein the micro-generator is adapted and configured to generate energy and communicate the generated energy to the medical device; and further wherein the size of the micro-generator ranges from 7 French to 20 French; characterised in that: the housing further comprises one or more of at least one of springs (1096, 1096', 1196, 1196') and bumpers (992, 992') at either one or both of the first end and the second end of the cavity of the elongated housing. the housing further comprises one or more of at least one of springs (1096, 1096', 1196, 1196') and bumpers (992, 992') at either one or both of the first end and the second end of the cavity of the elongated housing.
A process for making a compound of Formula IX: wherein: wherein Ar is phenyl, which phenyl may be unsubstituted, or substituted 1-3 times with substituents independently selected from the group consisting of: halo, C 1-6 alkyl, C 1-6 alkoxy, and haloC 1-6 alkyl; R 2 and R 3 are each independently selected from the group consisting of: hydrogen, C 1-6 alkyl, haloC 1-6 alkyl, C 1-6 alkoxy, and hydroxyC 1-6 alkyl; and Ar' is a pyridine group: wherein: R 4 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, C 1 - 6 alkoxy, and (C 1 - 6 alkoxy)C 1 - 6 alkyl; R 5 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, and haloC 1 - 6 alkyl; and R 6 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, haloC 1 - 6 alkyl, C 1 - 6 alkoxy, (C 1 - 6 alkoxy)C 1 - 6 alkyl, and cyano; comprising the step of reacting a compound of Formula VII: wherein Ar, R 2 and R 3 are as given above, with a compound of Formula X: wherein R 4, R 5, and R 6 are as given above, said reacting carried out in an organic solvent in the presence of an organic amine and an amide coupling agent, to prepare said compound of Formula IX. wherein Ar is phenyl, which phenyl may be unsubstituted, or substituted 1-3 times with substituents independently selected from the group consisting of: halo, C 1-6 alkyl, C 1-6 alkoxy, and haloC 1-6 alkyl; R 2 and R 3 are each independently selected from the group consisting of: hydrogen, C 1-6 alkyl, haloC 1-6 alkyl, C 1-6 alkoxy, and hydroxyC 1-6 alkyl; and Ar' is a pyridine group: wherein: R 4 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, C 1 - 6 alkoxy, and (C 1 - 6 alkoxy)C 1 - 6 alkyl; R 5 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, and haloC 1 - 6 alkyl; and R 6 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, haloC 1 - 6 alkyl, C 1 - 6 alkoxy, (C 1 - 6 alkoxy)C 1 - 6 alkyl, and cyano; R 4 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, C 1 - 6 alkoxy, and (C 1 - 6 alkoxy)C 1 - 6 alkyl; R 5 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, and haloC 1 - 6 alkyl; and R 6 is selected from the group consisting of: hydrogen, halo, C 1 - 6 alkyl, haloC 1 - 6 alkyl, C 1 - 6 alkoxy, (C 1 - 6 alkoxy)C 1 - 6 alkyl, and cyano;
A collection of adsorbent particles, the particles comprising an adsorbent and a silica binder formed by a method comprising the steps of: mixing, agglomeration and calcination, wherein the silica binder is employed in the form of a colloidal solution in the mixing and/or agglomeration stages of the forming method and wherein the binder content in the adsorbent particles is not greater than about 15 wt% as determined by: (binder (dry wt) /(adsorbent) (dry wt) + binder (dry wt)) × 100) on a dry weight basis; wherein the collection of particles has a SCRR/ε p (size compensated relative rate/porosity) (mmol mm 2 /g s) of greater than or equal to 4.0 as determined for a Li form of the collection of particles in which at least 90% of the exchangeable cations of the collection of adsorbents have been exchanged with Li where the degree of exchange is expressed as a ratio between the number of Li cations and number of aluminum atoms of the adsorbent present in tetrahedral positions and wherein the particles have an average crush strength as measured by the single bead crush strength method of at least 4.00 N (0.9 Ibf) when such adsorbent has an average particle size of at least about 1.0 mm; wherein the collection of particles are subjected to ion exchange and activation such that at least 90% of the exchangeable cations of the collection of adsorbent particles have been exchanged with Li and the silica binder content does not exceed about 18 wt% of the ion-exchanged collection of particles; and wherein ε p is the porosity and SCRR is determined by: SCRR p = RR p * d particle 2; where d particle is the average diameter derived from the particle size distribution, (p) is total pressure of the system, and Relative Rate defined as: RR p = Δ N 2 Y F, Y O / t 2 − t 1; Δ N 2 is nitrogen loading for Y O to Y F; Y F is composition of feed which has a mole fraction of oxygen equal to 0.209, Y O is composition of regeneration gas which has a mole fraction of oxygen equal to 0.9999, t 2 is the time when mole fraction of oxygen, Y 2, has a specified value and t 1 is the time when mole fraction of oxygen Y 1 has a specified value; and wherein the particle size (d particle) is the average particle size, as determined for example by screen analysis using a series of screens of appropriate mesh sizes.
A method for preparing a conducting substrate, comprising: a) forming a conducting layer on a substrate and patterning the conducting layer; b) forming a metal layer on the entire surface of the substrate comprising the patterned conducting layer; c) printing an insulating layer pattern on the metal layer; d) forming a metal layer pattern by over-etching the metal layer by using the insulating layer pattern as a mask, wherein an undercut is formed below the edge of the insulating layer pattern during the over-etching process of the metal layer; and e) reforming the insulating layer pattern such that at the end of the patterned conducting layer, at least a part of the insulating payer pattern is formed to contact the substrate. a) forming a conducting layer on a substrate and patterning the conducting layer; b) forming a metal layer on the entire surface of the substrate comprising the patterned conducting layer; c) printing an insulating layer pattern on the metal layer; d) forming a metal layer pattern by over-etching the metal layer by using the insulating layer pattern as a mask, wherein an undercut is formed below the edge of the insulating layer pattern during the over-etching process of the metal layer; and e) reforming the insulating layer pattern such that at the end of the patterned conducting layer, at least a part of the insulating payer pattern is formed to contact the substrate.
An electronic cigarette, comprising: an intelligent controller comprising a switch module, a voltage acquisition module, a control module, and a display module; wherein the switch module is configured to send an activating signal to activate the intelligent controller; wherein the voltage acquisition module is adapted for being coupled to a heating wire of an atomizer for acquiring a terminal voltage of the heating wire; wherein the control module is coupled to the switch module and the voltage acquisition module, respectively, and is configured to send, after receiving the activating signal from the switch module, a control signal to the voltage acquisition module to make the voltage acquisition module acquire the terminal voltage of the heating wire, detect whether the heating wire is in a short-circuit condition, an open-circuit condition or a normal condition based on a type of the acquired signal from the voltage acquisition module, and output a detection result; and wherein the display module is electrically connected to an output of the control module, and is configured to display whether the heating wire is in a short-circuit condition, an open-circuit condition or a normal condition, such that a user directly observes condition of the heating wire. an intelligent controller comprising a switch module, a voltage acquisition module, a control module, and a display module; wherein the switch module is configured to send an activating signal to activate the intelligent controller; wherein the voltage acquisition module is adapted for being coupled to a heating wire of an atomizer for acquiring a terminal voltage of the heating wire; wherein the control module is coupled to the switch module and the voltage acquisition module, respectively, and is configured to send, after receiving the activating signal from the switch module, a control signal to the voltage acquisition module to make the voltage acquisition module acquire the terminal voltage of the heating wire, detect whether the heating wire is in a short-circuit condition, an open-circuit condition or a normal condition based on a type of the acquired signal from the voltage acquisition module, and output a detection result; and wherein the display module is electrically connected to an output of the control module, and is configured to display whether the heating wire is in a short-circuit condition, an open-circuit condition or a normal condition, such that a user directly observes condition of the heating wire.
A molded skin (1; 5) including a plastisol layer (2, 6) comprising a first plastisol having a first color, wherein a plurality of plastisol splashes having a diameter and being separated from each other are introduced into a surface of the plastisol layer and comprise a second plastisol having a second color different from the first color, and wherein a median diameter of the plastisol splashes is smaller than 200 μm.
Process for indirect heat exchange between a salt melt (2, 2') as first heat transfer medium and at least one second heat transfer medium (15, 15'), characterized in that the salt melt (2, 2') and the second heat transfer medium (15, 15') are introduced into a coil-wound heat exchanger and conveyed through this, with the heat exchanger having a plurality of tubes which are coiled in a plurality of layers around a central core tube and are surrounded by a shell which bounds a shell space around the tubes and the salt melt (2, 2') being passed through the shell space of the coil-wound heat exchanger and the temperature of the salt melt being in the range from about 250°C to about 600°C, and the second heat transfer medium (15, 15') or further heat transfer media, which is/are a salt melt, water, steam, ammonia, supercritical carbon dioxide or heat transfer oil is/are conveyed through the tubes of the coil-wound heat exchanger.
An intelligent device for composting organic waste by use of larvae of saprophagous insects, comprising an outer casing which delimits an inner compartment suitable for housing an inner container coaxially placed inside the outer casing and suitable for containing organic waste and larvae of saprophagous insects, characterized in that said inner container is open on the top and is provided with a plurality of through holes on the upper portion for making it possible for migrating larvae to pass from the inner container to a migration pipe up to reaching a lower collection compartment placed between the bottom of the outer casing and the bottom of the inner container, suitable for collecting the percolate and the migrating larvae, and in that said device is provided with optoelectronic sensor means in the migration pipe capable of detecting the passage of at least one migrating larva from the inner container, passing through the migration pipe up to the lower collection compartment, said sensors being positioned along at least one migration route followed by the larvae from the inner container to the lower collection compartment, said device being also provided with a control unit comprising software means and a wireless module.
A steering damper comprising: a lower casing having an opening formed centrally thereof; a rotor including a disk portion shaped circular in plan view, and a rotary shaft formed to project upward and downward along a rotating center of the disk portion, and arranged to be rotatable with the rotary shaft inserted in the opening of the lower casing; an electromagnet fixedly disposed around the rotor and spaced from the rotor; an upper casing having a bearing, and fastened to the lower casing to cover the electromagnet and the rotor, with the rotary shaft of the rotor inserted in the bearing; a magnetic fluid chamber formed at least between the rotor and the electromagnet, and filled with a magnetic fluid; and a volume compensating unit communicating with the magnetic fluid chamber for compensating volume variations of the magnetic fluid. a lower casing having an opening formed centrally thereof; a rotor including a disk portion shaped circular in plan view, and a rotary shaft formed to project upward and downward along a rotating center of the disk portion, and arranged to be rotatable with the rotary shaft inserted in the opening of the lower casing; an electromagnet fixedly disposed around the rotor and spaced from the rotor; an upper casing having a bearing, and fastened to the lower casing to cover the electromagnet and the rotor, with the rotary shaft of the rotor inserted in the bearing; a magnetic fluid chamber formed at least between the rotor and the electromagnet, and filled with a magnetic fluid; and a volume compensating unit communicating with the magnetic fluid chamber for compensating volume variations of the magnetic fluid.
A lubricating composition comprising an oil of lubricating viscosity and 0.1 wt % to 15 wt % of a compound comprising the reaction product of a polyolefin, an ethylenically unsaturated aromatic acylating agent, and an amine, wherein the polyolefin is a polyisobutylene having a number average molecular weight of 350 to 5000, wherein the ethylenically unsaturated aromatic acylating agent is cis-cinnamic acid, trans-cinnamic acid, or mixtures thereof, and wherein the amine is an aromatic amine selected from the group consisting of aniline, nitroaniline, aminocarbazole, 4-aminodiphenylamine (ADPA), and coupling products of ADPA represented by the formula: wherein independently each variable, R 1 is hydrogen or a C 1-5 alkyl group; R 2 is hydrogen or a C 1-5 alkyl group; U is an aliphatic, alicyclic or aromatic group, with the proviso that when U is aliphatic, the aliphatic group is a linear or branched alkylene group containing 1 to 5, or 1 to 2 carbon atoms; and w is 1 to 10, or 1 to 4, or 1 to 2.
A method of monitoring the effectiveness of a course of treatment for a patient suffering from non small cell lung carcinoma comprising: determining a first level of GP88 expression in a biological sample from said patient prior to said treatment; and subsequently determining a second level of GP88 expression in a biological sample from said patient during said treatment, wherein determining the level of GP88 expression comprises contacting with a GP88 binding composition, and comparing said first level of GP88 expression with said second level of GP88 expression to indicate the effectiveness of said treatment wherein an elevated level of GP88 in the second sample compared to the first sample indicates ineffective treatment. determining a first level of GP88 expression in a biological sample from said patient prior to said treatment; and subsequently determining a second level of GP88 expression in a biological sample from said patient during said treatment,
System comprising a plurality of local coils for a magnetic resonance tomography system, an energy transmitting device and a clock source, wherein each of the local coils has in each case an energy supply device with an energy store, a clock control system and an energy receiving device for the wireless reception of energy from the energy transmitting device, wherein the clock control system is configured to be synchronised with the clock source and the clock control system has a signal connection with the energy supply device and is configured to control energy take-up via the energy receiving device in dependence on the synchronisation, characterised in that, the clock source is configured to transmit synchronisation information to the clock control systems of the local coils such that only a genuine subset of the local coils simultaneously takes up energy via the energy receiving device.