mhurhangee/patent-ind-claim-en huggingface dataset:
A control yoke for steering a motor vehicle, with a hub which is attached to a steering shaft , is connected to two steering handles protruding laterally in opposite directions, and has a motor-driven adjustment device by means of which the steering handles are displaceable from a usage position at a greater distance from the hub into a standby position at a smaller distance from the hub and vice versa, characterized in that the steering handles are rotatable by means of the adjustment device towards the driver in the usage position and away from the driver in the standby position about a transverse axis which connects the two steering handles and is arranged transversely to the rotation axis of the steering shaft , wherein the steering handles are displaceable along the transverse axis by means of the adjustment device .
An apparatus for manufacturing or repairing fibre-reinforced composite materials, the apparatus comprising: a vacuum barrier configured to cover an infusion region comprising a constituent of a composite material and to define a substantially sealed volume comprising the infusion region ; a vacuum port for fluid communication with the volume ; a device for retaining and controlling the release of resin , the device being disposed inside the volume and comprising: a quantity of resin having a viscosity that is temperature dependent; and a first sheet and an opposite second sheet at least partially enclosing the quantity of resin , the first sheet and the second sheet being gas-permeable, the second sheet being substantially resin-impermeable when the viscosity of the resin is above a threshold viscosity and resin-permeable when the viscosity of the resin is below the threshold viscosity, the second sheet of the resin retaining/releasing device forming at least part of an infusion path between the resin and the infusion region , wherein at least one of the first sheet and the second sheet comprises a first layer including a woven fabric and a second layer comprising a porous membrane; and a heater configured to apply heat to the resin . a vacuum barrier configured to cover an infusion region comprising a constituent of a composite material and to define a substantially sealed volume comprising the infusion region ; a vacuum port for fluid communication with the volume ; a device for retaining and controlling the release of resin , the device being disposed inside the volume and comprising: a quantity of resin having a viscosity that is temperature dependent; and a first sheet and an opposite second sheet at least partially enclosing the quantity of resin , the first sheet and the second sheet being gas-permeable, the second sheet being substantially resin-impermeable when the viscosity of the resin is above a threshold viscosity and resin-permeable when the viscosity of the resin is below the threshold viscosity, the second sheet of the resin retaining/releasing device forming at least part of an infusion path between the resin and the infusion region , wherein at least one of the first sheet and the second sheet comprises a first layer including a woven fabric and a second layer comprising a porous membrane; and a quantity of resin having a viscosity that is temperature dependent; and a first sheet and an opposite second sheet at least partially enclosing the quantity of resin , the first sheet and the second sheet being gas-permeable, the second sheet being substantially resin-impermeable when the viscosity of the resin is above a threshold viscosity and resin-permeable when the viscosity of the resin is below the threshold viscosity, the second sheet of the resin retaining/releasing device forming at least part of an infusion path between the resin and the infusion region , wherein at least one of the first sheet and the second sheet comprises a first layer including a woven fabric and a second layer comprising a porous membrane; and a heater configured to apply heat to the resin .
Item of clothing comprising: - a first pocket provided with first means of opening/closing to respectively allow and inhibit access to said first pocket , - a second pocket with second means of opening/closing to respectively allow and inhibit access to the second pocket , characterized in that - the first means of opening/closing and the second means of opening/closing are aligned and at least partially overlapped so as to allow the simultaneous insertion of a hand through the first means of opening/closing and the second means of opening/closing , when opened to access the second pocket through the first pocket . - a first pocket provided with first means of opening/closing to respectively allow and inhibit access to said first pocket , - a second pocket with second means of opening/closing to respectively allow and inhibit access to the second pocket , characterized in that - the first means of opening/closing and the second means of opening/closing are aligned and at least partially overlapped so as to allow the simultaneous insertion of a hand through the first means of opening/closing and the second means of opening/closing , when opened to access the second pocket through the first pocket .
A fuse for protecting a 48V battery system of an electric vehicle, the fuse comprising a housing and a fusing body disposed within the housing, wherein the fusing body comprises a fusing portion as well as a first heating portion and a second heating portion respectively connected to both sides of the fusing portion; a width of the fusing portion is larger than a width of the first heating portion and that of the second heating portion; the fusing portion comprises at least one hole; the at least one hole divides the fusing portion into narrow portions having a width smaller than that of the first heating portion or the second heating portion; the fusing portion, the first heating portion, and the second heating portion are integrally formed.
A redundant lighting driver system , comprising: a primary driver ; a backup driver , wherein the backup driver includes an inductor unit that limits time varying current, characterized in that the inductor unit is sized such that both the backup driver withstands a transient surge voltage having a duration less than 1000 μs and an output voltage provided by the backup driver is less than an output voltage provided by the primary driver when powering a light source ; wherein the primary driver and the backup driver are each configured to receive an alternating current (AC) power from a power source , wherein the inductor unit receives the AC power for the backup driver; and wherein the primary driver is configured to provide a primary power to the light source, and wherein the backup driver is configured to provide a backup power to the light source when the primary driver is disabled due to a power surge, wherein the backup power is less than the primary power. a primary driver ; a backup driver , wherein the backup driver includes an inductor unit that limits time varying current, characterized in that the inductor unit is sized such that both the backup driver withstands a transient surge voltage having a duration less than 1000 μs and an output voltage provided by the backup driver is less than an output voltage provided by the primary driver when powering a light source ; wherein the primary driver and the backup driver are each configured to receive an alternating current (AC) power from a power source , wherein the inductor unit receives the AC power for the backup driver; and wherein the primary driver is configured to provide a primary power to the light source, and wherein the backup driver is configured to provide a backup power to the light source when the primary driver is disabled due to a power surge, wherein the backup power is less than the primary power.
A terminal comprising: a control section that specifies a density in a time domain of a phase tracking reference signal, PT-RS, mapped to a downlink resource based on a modulation and coding scheme, MCS, scheduled for the terminal and that specifies a density in a frequency domain of the PT-RS based on a number of resource blocks scheduled for the terminal; and a reception section that receives the PT-RS according to the specified density in the time domain and the specified density in the frequency domain. a control section that specifies a density in a time domain of a phase tracking reference signal, PT-RS, mapped to a downlink resource based on a modulation and coding scheme, MCS, scheduled for the terminal and that specifies a density in a frequency domain of the PT-RS based on a number of resource blocks scheduled for the terminal; and a reception section that receives the PT-RS according to the specified density in the time domain and the specified density in the frequency domain.
A process for assembling aircraft control surfaces , in particular high lift devices and wing portions, wherein the control surface is defined by an upper skin and by a lower skin made of a laminar composite material, assembled by a front spar , a rear spar (6; 7), longitudinal stringers and transversal ribs, said upper and lower skin having an edge at the front spar , comprising the steps of: • forming a leading edge , in an integrated way, bending and adhering said edge of the upper skin around the front spar with an adhesive; • fastening the rear spar (6; 7), the longitudinal stringers and the transversal ribs to said upper skin by means of said adhesive, thereby implementing a constant section structure; • placing the lower skin to join the upper skin to form the control surface obtaining an assembly mounted on a frame , the laminar composite material of the upper and lower skins being not yet hardened; and • placing said assembly with said frame in an autoclave and simultaneously harden both the laminar composite material of the upper and lower skins and the adhesive, thereby said leading edge is defined by the front spar . • forming a leading edge , in an integrated way, bending and adhering said edge of the upper skin around the front spar with an adhesive; • fastening the rear spar (6; 7), the longitudinal stringers and the transversal ribs to said upper skin by means of said adhesive, thereby implementing a constant section structure; • placing the lower skin to join the upper skin to form the control surface obtaining an assembly mounted on a frame , the laminar composite material of the upper and lower skins being not yet hardened; and • placing said assembly with said frame in an autoclave and simultaneously harden both the laminar composite material of the upper and lower skins and the adhesive, thereby said leading edge is defined by the front spar .
Equipment for connection of subsea pipelines in block architecture, comprising a machined block manifold provided of at least one fluid import mandrel of side input, at least one stop valves set provided on the surface of the machined block manifold , the latter also receiving the header and machined branches, the equipment further comprising at least a point for supporting a subsea line or pipeline , characterized in that the stop valves are located inside the machined block manifold , the machined block manifold has a valve block for directly fixing on the latter the subsea line or pipeline and the equipment comprises a device for subsea installation , which is a eyebolt fully fixed or articulated to the machined block manifold .
A data communication system configured to establish independent network paths through the data communication system, the data communication system comprising at least a first network and a second network, wherein the communication system: comprises a first node interface connected to a second node interface over the first network; the first node interface connected to the second node interface over the second network, the first network and second network being operated in parallel; and is configured to send data from the first node interface to the second node interface via the first network using a first network address and send data from the first node interface to the second node interface via the second network using a second network address, wherein the second network address is not equivalent to the first network address, wherein the first node interface is arranged to package data into a packet frame and to select and append to a data frame the network address for the second interface for transmission of the data frame to the second node interface along the first network; and the first node interface is arranged to duplicate the packet frame into an alternate packet frame and to select and append to the alternate packet frame the second network address for the second interface for transmission of the second data frame to the second node interface along the second network. comprises a first node interface connected to a second node interface over the first network; the first node interface connected to the second node interface over the second network, the first network and second network being operated in parallel; and is configured to send data from the first node interface to the second node interface via the first network using a first network address and send data from the first node interface to the second node interface via the second network using a second network address, wherein the second network address is not equivalent to the first network address, wherein the first node interface is arranged to package data into a packet frame and to select and append to a data frame the network address for the second interface for transmission of the data frame to the second node interface along the first network; and the first node interface is arranged to duplicate the packet frame into an alternate packet frame and to select and append to the alternate packet frame the second network address for the second interface for transmission of the second data frame to the second node interface along the second network.
A PLL circuit including a loop filter , the loop filter comprising: a first filter ; a plurality of binary-weighted capacitors (C 2 , C 3 , C n ) that each include a first terminal coupled to a supply voltage node and a second terminal; a current source device (M1) coupled between the supply voltage node and an output and including a control input, wherein the output is coupled to a current controlled oscillator ; first switches (SW1), each of the first switches (SW1) connected between the second terminal of a respective capacitor of the plurality of binary-weighted capacitors (C 2 , C 3 , C n ) and the output of a charge pump ; and second switches (SW2), each of the second switches (SW2) connected between the second terminal of a respective capacitor of the plurality of binary-weighted capacitors (C 2 , C 3 , C n ) and the control input of the current source device (M1); wherein the first filter is connected between the supply voltage node and the control input of the current source device (M1); wherein the first and second switches (SW1, SW2) are metal oxide semiconductor switches. a first filter ; a plurality of binary-weighted capacitors (C 2 , C 3 , C n ) that each include a first terminal coupled to a supply voltage node and a second terminal; a current source device (M1) coupled between the supply voltage node and an output and including a control input, wherein the output is coupled to a current controlled oscillator ; first switches (SW1), each of the first switches (SW1) connected between the second terminal of a respective capacitor of the plurality of binary-weighted capacitors (C 2 , C 3 , C n ) and the output of a charge pump ; and second switches (SW2), each of the second switches (SW2) connected between the second terminal of a respective capacitor of the plurality of binary-weighted capacitors (C 2 , C 3 , C n ) and the control input of the current source device (M1); wherein the first filter is connected between the supply voltage node and the control input of the current source device (M1); wherein the first and second switches (SW1, SW2) are metal oxide semiconductor switches.
A compound having formula I: its stereoisomer, salt, hydrate, solvate, or crystalline form thereof; wherein, Ar is optionally substituted phenyl, or optionally substituted 3-pyridyl or 4-pyridyl, R 3 is hydrogen or isobutyryl, and R 5 is hydrogen or isobutyryl, or R 3 and R 5 together form a cyclic group as shown below: wherein R 1 and R 2 are independently selected from the group consisting of H, alkyl and alkylaryl, or R 1 and R 2 together form an alkylene chain so as to provide, together with the C atom to which they are attached, a cyclic system; and R 4 is selected from the group consisting of alkyl, aryl and alkylaryl. its stereoisomer, salt, hydrate, solvate, or crystalline form thereof; wherein, Ar is optionally substituted phenyl, or optionally substituted 3-pyridyl or 4-pyridyl, R 3 is hydrogen or isobutyryl, and R 5 is hydrogen or isobutyryl, or R 3 and R 5 together form a cyclic group as shown below: wherein R 1 and R 2 are independently selected from the group consisting of H, alkyl and alkylaryl, or R 1 and R 2 together form an alkylene chain so as to provide, together with the C atom to which they are attached, a cyclic system; and R 4 is selected from the group consisting of alkyl, aryl and alkylaryl. R 1 and R 2 are independently selected from the group consisting of H, alkyl and alkylaryl, or R 1 and R 2 together form an alkylene chain so as to provide, together with the C atom to which they are attached, a cyclic system; and R 4 is selected from the group consisting of alkyl, aryl and alkylaryl.
A composition comprising a recombinant gp120 HIV-1 envelope protein comprising all the consecutive amino acids immediately after the signal peptide MRVMGIQRNYPQWWIWSMLGFWMLMICNG in SEQ ID NOs: 879, 861, 884 or 866, all of the consecutive amino acids immediately after the signal peptide MRVTGIQRNYPQWWIWSMLGLWMLMICNG in SEQ ID NOs: 889 or 871 or all of the consecutive amino acids immediately after the signal peptide MKVRGIQRNYPQWWIWSMLGLWMLMICNG in SEQ ID NOs: 893 or 875.
A method of wireless communication at a user equipment, UE, comprising: transmitting a processing time parameter to a base station, the processing time parameter corresponding to a number of symbols; receiving a physical downlink control channel, PDCCH, from a base station during a PDCCH monitoring occasion in a span, wherein the span is a set of resources on which the UE is adapted to receive a PDCCH from the base station; processing the PDCCH received in the PDCCH monitoring occasion to determine resources for a scheduled channel, a number of symbols between a last symbol of the span and an initial symbol of the determined resources being equal to or greater than the number of symbols of the processing time parameter; and transmitting or receiving data on the scheduled channel based on the processed PDCCH. transmitting a processing time parameter to a base station, the processing time parameter corresponding to a number of symbols; receiving a physical downlink control channel, PDCCH, from a base station during a PDCCH monitoring occasion in a span, wherein the span is a set of resources on which the UE is adapted to receive a PDCCH from the base station; processing the PDCCH received in the PDCCH monitoring occasion to determine resources for a scheduled channel, a number of symbols between a last symbol of the span and an initial symbol of the determined resources being equal to or greater than the number of symbols of the processing time parameter; and transmitting or receiving data on the scheduled channel based on the processed PDCCH.
A refrigerant consisting essentially of at least 99.5% by weight of a blend of four compounds: about 47% by weight difluoromethane (HFC-32), about 12% by weight pentafluoroethane (HFC-125), about 35% by weight trifluoroiodomethane (CF3I) and about 6% by weight 2,3,3,3-tetrafluoropropene (HFO-1234yf) wherein the percentages are based on the total weight of the four compounds in the blend, about means +/- 0.5% by weight and the weight ratio of (HFC-32 + HFO-1234yf):(CF3I + HFC-125) is from greater than 1:1 to less than 1.2:1.
A method of preparing silicon carbide, the method comprising steps of: preparing a mixed solution including a carbon raw material and a silica raw material; and synthesizing silicon carbide by drying the mixed solution and heat treating the dried mixed solution in an inert atmosphere, wherein the silica raw material is a spherical silica aerogel, wherein the spherical silica aerogel comprises hydrophobic powder, wherein a heat treatment temperature of step is in a range of 1,450°C to 1,550°C. preparing a mixed solution including a carbon raw material and a silica raw material; and synthesizing silicon carbide by drying the mixed solution and heat treating the dried mixed solution in an inert atmosphere, wherein the silica raw material is a spherical silica aerogel, wherein the spherical silica aerogel comprises hydrophobic powder, wherein a heat treatment temperature of step is in a range of 1,450°C to 1,550°C.
Method for filling a flexible element with a loose granular material , wherein the element has two lengths of material connected to each other at points in the interior and along the edge, leaving a filling opening , characterized in that an air pressure difference between the interior and the external environment is generated, which widens the interior before it is filled with the granular material .
Method for the detoxification of gluten from grains of cereals, comprising the following steps: a) hydrating the cereal grains with water up to a humidity degree of the grains comprised between 15 and 18%; b) treating the hydrated grains by electromagnetic waves for a time and with a power necessary to reach a temperature of the grains comprised between 60 and 70°C; c) suspending the irradiation until a temperature comprised between 50 and 60°C is reached and simultaneous water evaporation with a humidity loss of the grains comprised between 14 and 16% in comparison to step a); d) treating the hydrated grains by electromagnetic waves for a time and with a power necessary to reach a temperature of the grains comprised between 80 and 90°C; e) suspending the irradiation until a temperature comprised between 70 and 80°C and simultaneous water evaporation with a humidity loss of the grains comprised between 40 and 44% in comparison to step a); f) treating the hydrated grains by electromagnetic waves for a time and with a power necessary to reach a temperature of the grains comprised between 110 and 120°C; g) suspending the irradiation until a temperature comprised between 80 and 90°C and simultaneous water evaporation with a humidity loss of the grains comprised between 50 and 60% in comparison to step a); h) slow cooling of the detoxified grains at room temperature. a) hydrating the cereal grains with water up to a humidity degree of the grains comprised between 15 and 18%; b) treating the hydrated grains by electromagnetic waves for a time and with a power necessary to reach a temperature of the grains comprised between 60 and 70°C; c) suspending the irradiation until a temperature comprised between 50 and 60°C is reached and simultaneous water evaporation with a humidity loss of the grains comprised between 14 and 16% in comparison to step a); d) treating the hydrated grains by electromagnetic waves for a time and with a power necessary to reach a temperature of the grains comprised between 80 and 90°C; e) suspending the irradiation until a temperature comprised between 70 and 80°C and simultaneous water evaporation with a humidity loss of the grains comprised between 40 and 44% in comparison to step a); f) treating the hydrated grains by electromagnetic waves for a time and with a power necessary to reach a temperature of the grains comprised between 110 and 120°C; g) suspending the irradiation until a temperature comprised between 80 and 90°C and simultaneous water evaporation with a humidity loss of the grains comprised between 50 and 60% in comparison to step a); h) slow cooling of the detoxified grains at room temperature.