mhurhangee/ep-ind-claims huggingface dataset:
A resin composition comprising: a maleimide compound represented by general formula: wherein R represents a hydrogen atom or a methyl group, and n represents an integer of 1 to 10 on average; a cyanate ester compound; a non-halogen epoxy resin; an inorganic filler; and an imidazole compound; wherein the imidazole compound is 2,4,5-triphenyl imidazole a maleimide compound represented by general formula: wherein R represents a hydrogen atom or a methyl group, and n represents an integer of 1 to 10 on average; a cyanate ester compound; a non-halogen epoxy resin; an inorganic filler; and an imidazole compound; wherein the imidazole compound is 2,4,5-triphenyl imidazole
A mobile communications device, comprising: - an enclosure comprising a plurality of sides (204, 206); - an electronics assembly comprising a ground plane and at least one feed structure; - a main antenna assembly (212, 214) configured to operate in a lower frequency range and an upper frequency range and disposed proximate a first side of said plurality of sides; and - a diversity antenna assembly disposed along a lateral side of said plurality of sides, said lateral side being substantially perpendicular to said first side, the diversity antenna assembly comprises: - a first diversity antenna apparatus configured to operate in the upper - frequency range and comprising a first feed portion coupled to said feed structure; and - a second diversity antenna apparatus configured to operate in the lower frequency range comprising a second feed portion configured to couple a first radiating portion to said feed structure, characterized in that the second diversity antenna apparatus further comprises a coupled feed loop type antenna structure comprising: - a second radiator element coupled to the ground plane by a ground structure proximate the main antenna assembly (212, 214) at the bottom of the device, and - a second radiator branch of the second radiator element connected from a first end to the second radiator element and from a second end to the ground plane at a ground switch point proximate the ground structure of the second radiator element. - an enclosure comprising a plurality of sides (204, 206); - an electronics assembly comprising a ground plane and at least one feed structure; - a main antenna assembly (212, 214) configured to operate in a lower frequency range and an upper frequency range and disposed proximate a first side of said plurality of sides; and - a diversity antenna assembly disposed along a lateral side of said plurality of sides, said lateral side being substantially perpendicular to said first side, the diversity antenna assembly comprises: - a first diversity antenna apparatus configured to operate in the upper - frequency range and comprising a first feed portion coupled to said feed structure; and - a second diversity antenna apparatus configured to operate in the lower frequency range comprising a second feed portion configured to couple a first radiating portion to said feed structure, - a first diversity antenna apparatus configured to operate in the upper - frequency range and comprising a first feed portion coupled to said feed structure; and - a second diversity antenna apparatus configured to operate in the lower frequency range comprising a second feed portion configured to couple a first radiating portion to said feed structure, - a second radiator element coupled to the ground plane by a ground structure proximate the main antenna assembly (212, 214) at the bottom of the device, and - a second radiator branch of the second radiator element connected from a first end to the second radiator element and from a second end to the ground plane at a ground switch point proximate the ground structure of the second radiator element.
A method comprising: enabling, at a network apparatus, use of a keep-awake message for a user equipment; determining, as part of a discontinuous communication mechanism defining an on-period for permitting transmission of data over a network, whether a resource allocation has been made to the user equipment for communicating over the network; and generating, if the resource allocation has been made, the keep-awake message to instruct the user equipment to extend the on-period, wherein the keep-awake message corresponds to an allocation table associated with the resource allocation. enabling, at a network apparatus, use of a keep-awake message for a user equipment; determining, as part of a discontinuous communication mechanism defining an on-period for permitting transmission of data over a network, whether a resource allocation has been made to the user equipment for communicating over the network; and generating, if the resource allocation has been made, the keep-awake message to instruct the user equipment to extend the on-period, wherein the keep-awake message corresponds to an allocation table associated with the resource allocation.
A process for making expanded poly(lactide) beads, comprising: (a) pressurizing unfoamed beads of a PLA resin blend having a crystallinity of no greater than 10 J/g as measured by differential scanning calorimetry with carbon dioxide to a superatmospheric pressure while maintaining the temperature at or below the 40°C; (b) heating the pressurized unfoamed beads to a temperature between 90°C and 160°C to at least partially crystallize the PLA resin blend to form carbon dioxide-saturated, partially crystallized, unfoamed beads; and then (c) depressurizing the carbon-dioxide-saturated, partially crystallized, unfoamed beads such that the carbon dioxide at least partially vaporizes to expand the beads; and then (d) simultaneously and/or after step (c), cooling the expanded beads to below 40°C, wherein the PLA resin blend includes: i) a first PLA polymer containing at least 88% L-lactic units, based on the total weight of the first PLA polymer; ii) a second PLA polymer containing at least 88% D-lactic units based on the total weight of the second PLA polymer; the first and second PLA copolymers being present in the PLA resin blend at a weight ratio of 75:25 to 98:2 or 25:75 to 2:98. (a) pressurizing unfoamed beads of a PLA resin blend having a crystallinity of no greater than 10 J/g as measured by differential scanning calorimetry with carbon dioxide to a superatmospheric pressure while maintaining the temperature at or below the 40°C; (b) heating the pressurized unfoamed beads to a temperature between 90°C and 160°C to at least partially crystallize the PLA resin blend to form carbon dioxide-saturated, partially crystallized, unfoamed beads; and then (c) depressurizing the carbon-dioxide-saturated, partially crystallized, unfoamed beads such that the carbon dioxide at least partially vaporizes to expand the beads; and then (d) simultaneously and/or after step (c), cooling the expanded beads to below 40°C, wherein the PLA resin blend includes: i) a first PLA polymer containing at least 88% L-lactic units, based on the total weight of the first PLA polymer; ii) a second PLA polymer containing at least 88% D-lactic units based on the total weight of the second PLA polymer; the first and second PLA copolymers being present in the PLA resin blend at a weight ratio of 75:25 to 98:2 or 25:75 to 2:98. wherein the PLA resin blend includes: i) a first PLA polymer containing at least 88% L-lactic units, based on the total weight of the first PLA polymer; ii) a second PLA polymer containing at least 88% D-lactic units based on the total weight of the second PLA polymer; i) a first PLA polymer containing at least 88% L-lactic units, based on the total weight of the first PLA polymer; ii) a second PLA polymer containing at least 88% D-lactic units based on the total weight of the second PLA polymer; the first and second PLA copolymers being present in the PLA resin blend at a weight ratio of 75:25 to 98:2 or 25:75 to 2:98.
A semiconductor memory device (200; 800), comprising: a memory cell array including a plurality of memory cell rows, each including a plurality of volatile memory cells (MC, MCs), the volatile memory cells (MC, MCs) being DRAM cells; a row hammer management circuit (500; 500a; 500b; 500c) configured to: capture row addresses accompanied by first active commands randomly selected from active commands (ACT, ACT1, ACT2), each having a first selection probability that is uniform, from an external memory controller during a reference time interval (RINT); and select at least one row address from among the captured row addresses as a hammer address (HADDR) a number of times proportional to access counts of an active command (ACT, ACT1, ACT2) corresponding to the at least one row address during the reference time interval (RINT); and a refresh control circuit (400, 825) configured to receive the hammer address (HADDR), and to perform a hammer refresh operation (HREF) on one or more victim memory cell rows which are physically adjacent to a memory cell row corresponding to the hammer address (HADDR). a memory cell array including a plurality of memory cell rows, each including a plurality of volatile memory cells (MC, MCs), the volatile memory cells (MC, MCs) being DRAM cells; a row hammer management circuit (500; 500a; 500b; 500c) configured to: capture row addresses accompanied by first active commands randomly selected from active commands (ACT, ACT1, ACT2), each having a first selection probability that is uniform, from an external memory controller during a reference time interval (RINT); and select at least one row address from among the captured row addresses as a hammer address (HADDR) a number of times proportional to access counts of an active command (ACT, ACT1, ACT2) corresponding to the at least one row address during the reference time interval (RINT); and capture row addresses accompanied by first active commands randomly selected from active commands (ACT, ACT1, ACT2), each having a first selection probability that is uniform, from an external memory controller during a reference time interval (RINT); and select at least one row address from among the captured row addresses as a hammer address (HADDR) a number of times proportional to access counts of an active command (ACT, ACT1, ACT2) corresponding to the at least one row address during the reference time interval (RINT); and a refresh control circuit (400, 825) configured to receive the hammer address (HADDR), and to perform a hammer refresh operation (HREF) on one or more victim memory cell rows which are physically adjacent to a memory cell row corresponding to the hammer address (HADDR).
Safety device for belts, of the type comprising at least two bases, a bottom one and a top removable one that defines a housing inside it, a rod integral with bottom base which is attached to top base, a key with first magnetic means provided on top base and in that it comprises: - a groove around rod, which when rod is fixed to top base, leaves said groove provided inside top base, in housing, - locking means, with two metallic, opposite strips (8, 9), in housing, which in the locked position fit inside groove, characterized in that it comprises: - second magnetic means inside housing, provided under strips (8, 9) with a lesser attraction force than that of the first magnetic means of key, and - retaining means that retain strips (8, 9) provided above said strips (8, 9) and which come into contact with said strips (8, 9) at point P, where in the locked position said strips (8, 9), due to the action of second magnetic means fit inside groove preventing the release of rod inside housing and where in the unlocked position, first magnetic means overcome the attraction of second magnetic means on strips (8, 9) attracting strips (8, 9) swinging at point P, releasing said strips (8, 9) from inside groove and releasing also rod from top base. - a groove around rod, which when rod is fixed to top base, leaves said groove provided inside top base, in housing, - locking means, with two metallic, opposite strips (8, 9), in housing, which in the locked position fit inside groove, - second magnetic means inside housing, provided under strips (8, 9) with a lesser attraction force than that of the first magnetic means of key, and - retaining means that retain strips (8, 9) provided above said strips (8, 9) and which come into contact with said strips (8, 9) at point P,
A coil spring to be incorporated in an innerspring assembly in a cushioning article, comprising: a high-carbon steel wire coiled into a helical spring, wherein the high carbon steel wire has a diameter of 1.016 to 2.794 millimeters (0.04 to 0.11 inches); characterized in that: the high-carbon steel wire includes carbon in an amount from 0.55 to 0.99 weight percent of the wire and comprises an additional alloying element; wherein the additional alloying element includes at least titanium and copper, the titanium is less than 0.1 weight percent of the wire, and the copper is ten to thirty times the amount of the titanium in the wire, and wherein a total amount of the alloying element excluding carbon is from 0.001 to 2 weight percent of the wire. a high-carbon steel wire coiled into a helical spring, wherein the high carbon steel wire has a diameter of 1.016 to 2.794 millimeters (0.04 to 0.11 inches);
Plant for generating a synthesis gas from a feedstock, the plant comprising: a first reactor stage having at least one thermolysis reactor which is designed to thermally decompose the feedstock with splitting into a thermolysis gas and a thermolysis substance; a second reactor stage with at least one reformer, which can be filled at least in sections with a heat transfer material and is designed to receive the thermolysis gas from the at least one thermolysis reactor and to convert it with a reforming medium into the synthesis gas in a reforming operation using a thermal energy provided by the heat transfer material, wherein material particles entrained in the thermolysis gas can be transferred as material deposits to the heat transfer material in the reforming operation; a discharge device configured to discharge the material particles and/or the material deposits from the at least one reformer in operation; and a separation device configured to separate at least some of the material deposits within the at least one reformer from the heat transfer material and to provide them as material particles to the discharge device for discharge from the at least one reformer. a first reactor stage having at least one thermolysis reactor which is designed to thermally decompose the feedstock with splitting into a thermolysis gas and a thermolysis substance; a second reactor stage with at least one reformer, which can be filled at least in sections with a heat transfer material and is designed to receive the thermolysis gas from the at least one thermolysis reactor and to convert it with a reforming medium into the synthesis gas in a reforming operation using a thermal energy provided by the heat transfer material, wherein material particles entrained in the thermolysis gas can be transferred as material deposits to the heat transfer material in the reforming operation; a discharge device configured to discharge the material particles and/or the material deposits from the at least one reformer in operation; and a separation device configured to separate at least some of the material deposits within the at least one reformer from the heat transfer material and to provide them as material particles to the discharge device for discharge from the at least one reformer.
A method of making a structural bonding adhesive comprising: mixing a first curable resin and a second curable resin to provide an uncured adhesive; and irradiating the uncured adhesive using a first actinic light source to polymerize the first curable resin selectively without polymerizing the second curable resin thereby providing a partially cured adhesive with reduced cold flow creep under ambient conditions, wherein the partially cured adhesive is a pressure-sensitive adhesive and is capable of being fully cured by irradiating the partially cured adhesive using a second actinic light source different from the first actinic light source to polymerize the second curable resin, and the partially cured adhesive displays a cold flow creep recovery of at least 40 percent as measured according to the General Creep and Creep-Recovery Test and Creep and Creep-Recovery Test 1 as disclosed in the description. mixing a first curable resin and a second curable resin to provide an uncured adhesive; and irradiating the uncured adhesive using a first actinic light source to polymerize the first curable resin selectively without polymerizing the second curable resin thereby providing a partially cured adhesive with reduced cold flow creep under ambient conditions, wherein the partially cured adhesive is a pressure-sensitive adhesive and is capable of being fully cured by irradiating the partially cured adhesive using a second actinic light source different from the first actinic light source to polymerize the second curable resin, and the partially cured adhesive displays a cold flow creep recovery of at least 40 percent as measured according to the General Creep and Creep-Recovery Test and Creep and Creep-Recovery Test 1 as disclosed in the description.
A method comprising: obtaining closed-loop data associated with operation of an industrial process controller (106, 204), the industrial process controller configured to control at least part of an industrial process using at least one model (144, 230); generating at least one noise model, associated with the industrial process controller using at least some of the closed-loop data; filtering the closed-loop data based on the at least one noise model; and estimating one or more model parameters, for the industrial process controller using the filtered closed-loop data; characterized in that, generating the at least one noise model comprises performing a first model identification process, the first model identification process comprises a high-order autoregressive with exogenous terms model identification process; and wherein estimating the one or more model parameters comprises performing a second model identification process, the second model identification process comprises an output-error model identification process. obtaining closed-loop data associated with operation of an industrial process controller (106, 204), the industrial process controller configured to control at least part of an industrial process using at least one model (144, 230); generating at least one noise model, associated with the industrial process controller using at least some of the closed-loop data; filtering the closed-loop data based on the at least one noise model; and estimating one or more model parameters, for the industrial process controller using the filtered closed-loop data; characterized in that, generating the at least one noise model comprises performing a first model identification process, the first model identification process comprises a high-order autoregressive with exogenous terms model identification process; and wherein estimating the one or more model parameters comprises performing a second model identification process, the second model identification process comprises an output-error model identification process.
A communication method, comprising: determining indication information based on a correspondence table, wherein the indication information is used to indicate at least one channel quality indicator, CQI index, the correspondence table comprises N CQI indexes, M modulation schemes, and K code rate parameters, at least one of the N CQI indexes corresponds to one type of modulation scheme, K of the N CQI indexes are in a one-to-one correspondence with the K code rate parameters, wherein Code Rate Parameter = Code Rate × 1024, N > M, N ≥ K, and N, K, and M are all positive integers; determining indication information based on the correspondence table, wherein a product of a code rate corresponding to a first CQI index of the N CQI indexes and a modulation order of a modulation scheme corresponding to the first CQI index is a value greater than 0 and less than 0.0781 in the correspondence table; wherein the N CQI indexes correspond to at least three types of modulation schemes, and a quantity of Quadrature Phase Shift Keying, QPSK modulation schemes of the at least three types of modulation schemes is greater than a quantity of modulation schemes of any other type of the at least three types of modulation schemes, and sending the indication information to a network device. determining indication information based on a correspondence table, wherein the indication information is used to indicate at least one channel quality indicator, CQI index, the correspondence table comprises N CQI indexes, M modulation schemes, and K code rate parameters, at least one of the N CQI indexes corresponds to one type of modulation scheme, K of the N CQI indexes are in a one-to-one correspondence with the K code rate parameters, wherein Code Rate Parameter = Code Rate × 1024, N > M, N ≥ K, and N, K, and M are all positive integers; determining indication information based on the correspondence table, wherein a product of a code rate corresponding to a first CQI index of the N CQI indexes and a modulation order of a modulation scheme corresponding to the first CQI index is a value greater than 0 and less than 0.0781 in the correspondence table; wherein the N CQI indexes correspond to at least three types of modulation schemes, and a quantity of Quadrature Phase Shift Keying, QPSK modulation schemes of the at least three types of modulation schemes is greater than a quantity of modulation schemes of any other type of the at least three types of modulation schemes, and sending the indication information to a network device.
A liquid composition comprising (a) an epoxy resin, (b) carbon black particles, (c) carbon nanotubes and (d) a solvent with a vapor pressure of less than 1.34 × 10 3 Pa at 25°C. (a) an epoxy resin, (b) carbon black particles, (c) carbon nanotubes and (d) a solvent with a vapor pressure of less than 1.34 × 10 3 Pa at 25°C.