mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a rubbery polymer, wherein a conjugated diene monomer, a crosslinking agent, a molecular weight regulator, and an emulsifier are polymerized, wherein the crosslinking agent is a compound represented by Formula 1 below and is added in an amount of 0.05 to 0.5 parts by weight before polymerization initiation or when a polymerization conversion rate is 30 % or less: [Formula 1] [CH 2 =CR 1 CO 2 (R 2 O)nR 3 ]mC(R 4 )l wherein R 1 is hydrogen or an alkyl group selected from C 1 to C 3 alkyl groups, R 2 is an alkylene group selected from C 1 to C 4 alkylene groups, R 3 is an alkylene group selected independently from C 1 to C 3 alkylene groups, R 4 is an alkyl group selected from C 1 to C 3 alkyl groups, 1 is an integer of 0 to 2, n is an integer of 4 to 15, m is an integer of 3 or 4, and the product of m and n is 12 to 60, the molecular weight regulator is added in an amount of 0.01 parts by weight or more and less than 0.25 parts by weight at a polymerization conversion rate of 40 % to 75 %, and the emulsifier is an emulsifier having a critical micelle concentration (CMC) of 150 mg/L or less and is added at a polymerization conversion rate of 50 % to 85 %. R 1 is hydrogen or an alkyl group selected from C 1 to C 3 alkyl groups, R 2 is an alkylene group selected from C 1 to C 4 alkylene groups, R 3 is an alkylene group selected independently from C 1 to C 3 alkylene groups, R 4 is an alkyl group selected from C 1 to C 3 alkyl groups, 1 is an integer of 0 to 2, n is an integer of 4 to 15, m is an integer of 3 or 4, and the product of m and n is 12 to 60, the molecular weight regulator is added in an amount of 0.01 parts by weight or more and less than 0.25 parts by weight at a polymerization conversion rate of 40 % to 75 %, and the emulsifier is an emulsifier having a critical micelle concentration (CMC) of 150 mg/L or less and is added at a polymerization conversion rate of 50 % to 85 %.
A pressure sensor assembly , comprising: a pressure port housing including a sensing side and a mounting side , wherein the sensing side includes a pressure port extending through the sensing side of the pressure port housing ; the pressure port housing further including a pressure sensing die cavity ; a pressure sensing die having a first side and an opposite second side , the pressure sensing die situated in the pressure sensing die cavity with the first side secured to the sensing side of the pressure port housing , the pressure sensing die having a pressure sensing diaphragm exposed to the pressure port ; and the second side of the pressure sensing die facing away from the sensing side of the pressure port housing and toward the mounting side characterized in that two or more electrical bond pads of the pressure sensor die extending out past the mounting side and accessible from outside of the pressure port housing such that the two or more electrical bond pads can be electrically and physically connected directly to two or more corresponding bond pads on another substrate. a pressure port housing including a sensing side and a mounting side , wherein the sensing side includes a pressure port extending through the sensing side of the pressure port housing ; the pressure port housing further including a pressure sensing die cavity ; a pressure sensing die having a first side and an opposite second side , the pressure sensing die situated in the pressure sensing die cavity with the first side secured to the sensing side of the pressure port housing , the pressure sensing die having a pressure sensing diaphragm exposed to the pressure port ; and the second side of the pressure sensing die facing away from the sensing side of the pressure port housing and toward the mounting side characterized in that two or more electrical bond pads of the pressure sensor die extending out past the mounting side and accessible from outside of the pressure port housing such that the two or more electrical bond pads can be electrically and physically connected directly to two or more corresponding bond pads on another substrate.
Plug-in connector including a plug housing pair with two connectable plug housings and a contact housing pair with two connectable contact housings , each plug housing comprising at least one socket for a contact housing , wherein the plug-in connector comprises a locking device that is mounted movably on one of the plug housings for locking the plug housings , characterized in that the contact housings are brought into contact when the plug housings are locked, by moving the locking device , wherein the plug-in connector is fixed rotatably on a flange.
A transport containment assembly comprising: a refrigeration unit ; a container ; and a plurality of boxes for storage of cargo; characterised in that the plurality of boxes are configured in series with one-another and stacked in a multitude of rows for the flow of cooling air from the refrigeration unit, wherein adjacent boxes of the plurality of boxes are detachably engaged to one-another; and wherein each one of the plurality of boxes include an inlet port and an outlet port for the flow of cooling air, and wherein each one of the plurality of boxes include a first isolation device constructed and arranged to close the inlet port and a second isolation device constructed and arranged to close the outlet port, wherein each one of the plurality of boxes define a cavity and each cavity of the adjacent boxes are in fluid communication with one-another. a refrigeration unit ; a container ; and a plurality of boxes for storage of cargo; characterised in that the plurality of boxes are configured in series with one-another and stacked in a multitude of rows for the flow of cooling air from the refrigeration unit, wherein adjacent boxes of the plurality of boxes are detachably engaged to one-another; and wherein each one of the plurality of boxes include an inlet port and an outlet port for the flow of cooling air, and wherein each one of the plurality of boxes include a first isolation device constructed and arranged to close the inlet port and a second isolation device constructed and arranged to close the outlet port, wherein each one of the plurality of boxes define a cavity and each cavity of the adjacent boxes are in fluid communication with one-another.
An aircraft lighting system disposed in an environment of an aircraft comprising: a housing ; an aircraft power system configured to deliver electrical power; an illumination element disposed within the housing; and switching circuitry including a driver in signal communication with the aircraft power system via a power connection to receive the electrical power and operable to control illumination of the illumination element using the electrical power, the driver operated with a driver voltage; further comprising a heatsink coupled to the illumination element and thermally conductive thereto; energy generation circuitry configured to receive heat from a heatsink, and configured to generate electricity from the environment to generate harvested energy, the electricity generated according to a Seebeck Effect performed by the energy generation circuitry ; and energy harvesting circuitry including a regulator configured to draw the harvested energy from the energy generation circuitry , to convert the harvested energy into a regulator voltage and to output the regulator voltage at the driver voltage. a housing ; an aircraft power system configured to deliver electrical power; an illumination element disposed within the housing; and switching circuitry including a driver in signal communication with the aircraft power system via a power connection to receive the electrical power and operable to control illumination of the illumination element using the electrical power, the driver operated with a driver voltage; further comprising a heatsink coupled to the illumination element and thermally conductive thereto; energy generation circuitry configured to receive heat from a heatsink, and configured to generate electricity from the environment to generate harvested energy, the electricity generated according to a Seebeck Effect performed by the energy generation circuitry ; and energy harvesting circuitry including a regulator configured to draw the harvested energy from the energy generation circuitry , to convert the harvested energy into a regulator voltage and to output the regulator voltage at the driver voltage.
A process for densification of a ceramic matrix composite comprising: forming a reinforcing ceramic continuous fiber stack having a central zone bounded by a middle zone and an outer zone adjacent said middle zone opposite said central zone ; locating small particles within said central zone ; coating said small particles and said ceramic fibers with silicon carbide through chemical vapor infiltration; locating medium particles within said middle zone ; coating said medium particles and said ceramic fibers with silicon carbide through chemical vapor infiltration; locating large particles within said outer zone ; coating said large particles and said ceramic fibers with silicon carbide through chemical vapor infiltration; forming said preform or stack into a predetermined three dimensional shape; and densifying said stack . forming a reinforcing ceramic continuous fiber stack having a central zone bounded by a middle zone and an outer zone adjacent said middle zone opposite said central zone ; locating small particles within said central zone ; coating said small particles and said ceramic fibers with silicon carbide through chemical vapor infiltration; locating medium particles within said middle zone ; coating said medium particles and said ceramic fibers with silicon carbide through chemical vapor infiltration; locating large particles within said outer zone ; coating said large particles and said ceramic fibers with silicon carbide through chemical vapor infiltration; forming said preform or stack into a predetermined three dimensional shape; and densifying said stack .
Mirror for EUV lithography, comprising a substrate and a reflective coating , wherein the reflective coating comprises a first group of layers and a second group of layers , wherein the first and second group of layers (3a, 3b; 4a, 4b) are designed in each case for reflecting radiation having a used wavelength (λ B ) in the range of between 5 nm and 30 nm, wherein the first group of layers is arranged between the substrate and the second group of layers , and wherein a decoupling coating is arranged between the first group and second group of layers , said decoupling coating having at least one absorption layer designed for absorbing radiation having a used wavelength (λ B ) in the range between 5 nm and 30 nm such that the second group of layers is optically decoupled from the first group of layers by preventing the radiation having the used wavelength from reaching the first group of layers , such that less than 5% of the incident radiation reaches the first group of layers , wherein the absorption layer has a thickness (d) of more than 50 nm.
Electronic system, comprising an antenna (ANT) that is configured for a contactless communication, the antenna having a first terminal (B1) and a second terminal (B2), a first component (CMP1) that is configured to communicate via the antenna according to a contactless type communication protocol using a carrier frequency, an impedance-matching circuit (CAI) that is configurable on command and connected to the first component and to the terminals of the antenna, an interface (INT) that is connected to the terminals of the antenna and to the impedance-matching circuit and configured to be removably connected to a second component (CMP2) that is configured to communicate according to a contactless type communication protocol using said carrier frequency, the impedance-matching circuit (CAI) having a first capacitor (C1) that is connected in parallel with the antenna and an activatable/deactivatable capacitive path (C2, C3) that is connected in parallel with the antenna, the capacitive path comprising a second capacitor (C2) having a first electrode that is connected to a first terminal of the antenna, a third capacitor (C3) having a first electrode that is connected to a second terminal of the antenna and controllable activation/deactivation means (T1) that are connected in series between a second electrode of the second capacitor and a second electrode of the third capacitor, the controllable activation/deactivation means (T1) having a first state corresponding to an activated state of the capacitive path in which they allow the second electrodes of the second and third capacitors to be mutually effectively connected, and a second state corresponding to a deactivated state of the capacitive path in which they remove the mutual effective connection between the second electrodes of the second and third capacitors, and control means (MG, R) that are configured to control the activation/deactivation means so as to place the impedance-matching circuit, in the absence of the second component being connected to said interface, in a first configuration in which it forms, with the first component and the antenna, a resonant circuit having a first resonant frequency that is compatible with said carrier frequency and, in the presence of the second component being connected to said interface, in a second configuration in which it forms, with the first component, the second component and the antenna, a resonant circuit having a second resonant frequency that is compatible with said carrier frequency, said capacitive path being in its activated state in said first configuration of the impedance-matching circuit and in its deactivated state in said second configuration of the impedance-matching circuit.
A disk suitable for looking through made of glass or plastic on which mirror-coating patterns for advertising purposes are present in the form of logos, symbols or labels, wherein the disk is configured as a composite of a plurality of individual disks , wherein one or multiple mirror-coated regions is/are present on each of the individual disks , the disk comprises a first individual disk with a first mirror-coated region and a second individual disk with a second mirror-coated region , wherein the second mirror-coated region is the negative image of the first mirror-coated region , characterized in that the mirror-coated regions are each located on the sides of the individual disks facing away from the eyes and at least one of the individual disks has on its side facing the eyes a full-surface mirror-coating layer or anti-reflection layer .
A method comprising: determining, at a fabric manager node (110-1) of a network fabric , a separate time period for each node (110-2, 110-3...110-n) coupled to the fabric manager node to receive and execute a given command from the fabric manager node; generating one or more packets including a command for at least a portion of nodes coupled to the fabric manager node; determining a time interval needed for all nodes of the portion of nodes to receive and execute the command based on the determined separate time period for each node; generating a time stamp based on the time interval; and sending the one or more packets to the portion of nodes and include the time stamp with at least one of the one or more packets to indicate a synchronized time for the portion of nodes to execute the command. determining, at a fabric manager node (110-1) of a network fabric , a separate time period for each node (110-2, 110-3...110-n) coupled to the fabric manager node to receive and execute a given command from the fabric manager node; generating one or more packets including a command for at least a portion of nodes coupled to the fabric manager node; determining a time interval needed for all nodes of the portion of nodes to receive and execute the command based on the determined separate time period for each node; generating a time stamp based on the time interval; and sending the one or more packets to the portion of nodes and include the time stamp with at least one of the one or more packets to indicate a synchronized time for the portion of nodes to execute the command.
A pneumatic tire comprising: a belt composed of at least three belt layers on the tire radial-direction outer side of a carcass , the at least three belt layers comprising two crossing belt layers that are inclined in the opposite directions across the tire equatorial plane, wherein a reinforcing material of the crossing belt layers is a steel cord which has a layer-twisted structure comprising a core composed of two core filaments and a sheath composed of eight sheath filaments that are twisted together around the core , the two core filaments have a circular cross section and are twisted together, and a steel cord amount in the crossing belt layers , which is represented by the following Equation , is 23 to 49: Steel cord diameter mm × Steel cord end count steel cords / 50 mm characterised in that : the twisting direction of the core filaments is different from the twisting direction of the sheath filaments .
A method of assessing the fitness level of an animal or human individual, the method comprising obtaining an electrical signal representing muscle activity of the individual during physical exercise, and identifying in the signal a plurality of first active periods (E1, E2, E3) where the signal repeatedly exceeds a threshold, and a plurality of second inactive periods where the signal is consistently below the threshold, determining a significant interval of durations of the plurality of first periods, identifying, among the plurality of first periods (E1, E2, E3) two or more individual first periods (clusters) each of a duration shorter than the significant interval of durations and separated by a separation period (CS), where the combined duration of the two or more individual first periods (clusters) and the separation period (CS) is within the significant interval of durations, and for first periods (E1, E2, E3) having durations within the significant interval of durations and for identified two or more individual first periods (clusters) performing the following steps: obtaining an efficiency value (E) by combining, by a linear combination, the durations of the first time periods and the durations of the second time periods, obtaining a strength value (S) representing the number of muscle fibres recruited during a movement as part of the exercise or of a muscle contraction, obtaining a temporal value (T) representing the frequency with which muscle fibres are activated repeatedly during a movement as part of the exercise or of a muscle contraction, and combining, by a mathematical operation such as a linear combination, the efficiency value (E), the strength value (S) and the temporal value (T) to obtain an index value (ESTi) indicative of the fitness level of the individual. obtaining an efficiency value (E) by combining, by a linear combination, the durations of the first time periods and the durations of the second time periods, obtaining a strength value (S) representing the number of muscle fibres recruited during a movement as part of the exercise or of a muscle contraction, obtaining a temporal value (T) representing the frequency with which muscle fibres are activated repeatedly during a movement as part of the exercise or of a muscle contraction, and combining, by a mathematical operation such as a linear combination, the efficiency value (E), the strength value (S) and the temporal value (T) to obtain an index value (ESTi) indicative of the fitness level of the individual.
An SMS processing method in an Internet of Things, wherein the method comprises: • receiving , by a mobility management network element in a packet switched, PS, domain, a non-combined registration request from a terminal device, wherein the non-combined registration request carries SMS only indication information; and • when determining that the mobility management network element in the PS domain cannot transfer an SMS for the terminal device through the PS domain, sending , by the mobility management network element in the PS domain, a location update request to a mobility management network element in a circuit switched, CS, domain, wherein the location update request is used to implement registration of the terminal device with the CS domain, • receiving, by the mobility management network element in the PS domain, a location update accept message from the mobility management network element in the CS domain, wherein the location update accept message is used to indicate that the mobility management network element in the CS domain accepts the registration of the terminal device with the CS domain, wherein the location update accept message comprises a CS domain mobility management parameter, • storing, by the mobility management network element in the PS domain, the CS domain mobility management parameter, so that when the mobility management network element in the PS domain implements the registration of the terminal device with the CS domain again, the CS domain mobility management parameter is used to implement the registration of the terminal device with the CS domain. • receiving , by a mobility management network element in a packet switched, PS, domain, a non-combined registration request from a terminal device, wherein the non-combined registration request carries SMS only indication information; and • when determining that the mobility management network element in the PS domain cannot transfer an SMS for the terminal device through the PS domain, sending , by the mobility management network element in the PS domain, a location update request to a mobility management network element in a circuit switched, CS, domain, wherein the location update request is used to implement registration of the terminal device with the CS domain, • receiving, by the mobility management network element in the PS domain, a location update accept message from the mobility management network element in the CS domain, wherein the location update accept message is used to indicate that the mobility management network element in the CS domain accepts the registration of the terminal device with the CS domain, wherein the location update accept message comprises a CS domain mobility management parameter, • storing, by the mobility management network element in the PS domain, the CS domain mobility management parameter, so that when the mobility management network element in the PS domain implements the registration of the terminal device with the CS domain again, the CS domain mobility management parameter is used to implement the registration of the terminal device with the CS domain.