mhurhangee/ep-ind-claims huggingface dataset:
An aircraft landing gear assembly comprising: a ground contacting part, an aircraft attachment part, and a component comprising: a first base member and a second base member separated along a first longitudinal axis, a plurality of first connecting points on the first base member arranged in a first regular polygon, a plurality of second connecting points on the second base member arranged in a second regular polygon, the second regular polygon having the same number of sides as the first regular polygon, and a plurality of first straight beams fixed to the first and second base members at the first and second connecting points and extending between the first and second base members, each beam aligned skew to the longitudinal axis. a ground contacting part, an aircraft attachment part, and a component comprising: a first base member and a second base member separated along a first longitudinal axis, a plurality of first connecting points on the first base member arranged in a first regular polygon, a plurality of second connecting points on the second base member arranged in a second regular polygon, the second regular polygon having the same number of sides as the first regular polygon, and a plurality of first straight beams fixed to the first and second base members at the first and second connecting points and extending between the first and second base members, each beam aligned skew to the longitudinal axis. a first base member and a second base member separated along a first longitudinal axis, a plurality of first connecting points on the first base member arranged in a first regular polygon, a plurality of second connecting points on the second base member arranged in a second regular polygon, the second regular polygon having the same number of sides as the first regular polygon, and a plurality of first straight beams fixed to the first and second base members at the first and second connecting points and extending between the first and second base members, each beam aligned skew to the longitudinal axis.
A door assembly (10; 110) for a laundry treatment device (1,100), apt to open or close an opening (4; 104) defined in said laundry treatment device, said door assembly comprising a frame (5, 6; 105, 106), said frame including: ∘ a front door frame (6; 106) forming a front surface (6a; 106a) of the door assembly, said front surface defining a front plane, said front door frame (6;106) comprising a plurality of coupling elements (21; 121) for the coupling to a rear door frame; and ∘ the rear door frame (5; 105) forming a rear surface (5b; 105b) of said door assembly, said rear surface defining a closure plane apt to abut against the opening formed in said laundry treatment device, said rear door frame (5;105) including a plurality of coupling counter-elements (22; 122) engaging with said coupling elements (21; 121) of said front door frame; ∘ wherein said coupling elements (21; 121) extend from a rear surface (6b; 106b) of said front door frame opposite to said front surface and/or said coupling counter-elements (22; 122) extend from a front surface (5a; 105a) of said rear door frame opposite to said rear surface; characterized in that a first height of a first one of said coupling elements from said rear surface (6b; 106b) of said front door frame (6; 106) is higher than a second height of a second one of said coupling elements (21; 121) from said rear surface of said front door frame, or a first height of a first one of said coupling counter-elements (22; 122) from said front surface (5a; 105a) of said rear door frame (5; 105) is higher than a second height of a second one of said coupling counter-elements from said front surface of said rear door frame, so that said front plane and said closure plane are intersecting one the other forming an angle different from 0° and 180°. ∘ a front door frame (6; 106) forming a front surface (6a; 106a) of the door assembly, said front surface defining a front plane, said front door frame (6;106) comprising a plurality of coupling elements (21; 121) for the coupling to a rear door frame; and ∘ the rear door frame (5; 105) forming a rear surface (5b; 105b) of said door assembly, said rear surface defining a closure plane apt to abut against the opening formed in said laundry treatment device, said rear door frame (5;105) including a plurality of coupling counter-elements (22; 122) engaging with said coupling elements (21; 121) of said front door frame; ∘ wherein said coupling elements (21; 121) extend from a rear surface (6b; 106b) of said front door frame opposite to said front surface and/or said coupling counter-elements (22; 122) extend from a front surface (5a; 105a) of said rear door frame opposite to said rear surface;
Equipment for transporting a young child in a vehicle, comprising a base intended to be anchored to a seat of said vehicle and a carry cot (2, 3, 4) for accommodating said child in the laid-back position in the longitudinal direction of the carry cot (2, 3, 4), and which can be firmly secured to said base, said carry cot (2, 3, 4) and said base comprising guide elements of complementary shapes allowing a translational guidance to be performed between said carry cot (2, 3, 4) and said base, in a direction of translational movement substantially parallel to the longitudinal direction of the carry cot (2, 3, 4), characterised in that said carry cot (2, 3, 4) and/or said base comprises means of selecting a transport position from among at least two possible transport positions which are distributed in said direction of translational movement.
A processor implemented method, comprising: generating, by exciting a first transducer in a frequency sweep mode, a sound signal to be transmitted to a second transducer in a mixed fluid medium inside a chamber; generating, based on transmission of the sound signal, a superimposed standing wave signal between the first transducer and the second transducer; analyzing, using an acoustic interferometry technique, one or more features of the superimposed standing wave signal to obtain a value of average velocity of the sound signal in the mixed fluid medium inside the chamber; the method being characterized by: determining, using one or more sensors, concentration of one or more fluids present inside the chamber; computing, using one or more look up tables, a theoretical value of the velocity of sound signal inside the chamber based on the concentration of the one or more fluids at different temperatures; and determining average temperature of the mixed fluid medium in the chamber by comparing the theoretical value and the obtained value of sound signal. generating, by exciting a first transducer in a frequency sweep mode, a sound signal to be transmitted to a second transducer in a mixed fluid medium inside a chamber; generating, based on transmission of the sound signal, a superimposed standing wave signal between the first transducer and the second transducer; analyzing, using an acoustic interferometry technique, one or more features of the superimposed standing wave signal to obtain a value of average velocity of the sound signal in the mixed fluid medium inside the chamber; the method being characterized by: determining, using one or more sensors, concentration of one or more fluids present inside the chamber; computing, using one or more look up tables, a theoretical value of the velocity of sound signal inside the chamber based on the concentration of the one or more fluids at different temperatures; and determining average temperature of the mixed fluid medium in the chamber by comparing the theoretical value and the obtained value of sound signal. determining, using one or more sensors, concentration of one or more fluids present inside the chamber; computing, using one or more look up tables, a theoretical value of the velocity of sound signal inside the chamber based on the concentration of the one or more fluids at different temperatures; and determining average temperature of the mixed fluid medium in the chamber by comparing the theoretical value and the obtained value of sound signal.
A method of charging an energy storage system using a wind turbine, the method comprising: using a wind turbine to generate power; establishing if turbine power production can be increased; establishing if the energy storage system is capable of taking a charge; increasing the power generated by the wind turbine above a rated power of the wind turbine; and using the additional power generated by the power increase to charge the energy storage system wherein establishing if turbine power production can be increased depends on vibrational modes of the wind turbine. using a wind turbine to generate power; establishing if turbine power production can be increased; establishing if the energy storage system is capable of taking a charge; increasing the power generated by the wind turbine above a rated power of the wind turbine; and using the additional power generated by the power increase to charge the energy storage system wherein establishing if turbine power production can be increased depends on vibrational modes of the wind turbine.
A process for removing carbon dioxide from a fluid stream, in which a) the fluid stream is contacted with an absorbent which comprises a solution of ammonia and at least one aminocarboxylic acid and/or aminosulfonic acid, wherein the absorbent has an ammonia concentration of from 1 to 12 mol/l a molar ratio of ammonia:aminocarboxylic acid and/or aminosulfonic acid of from 0.5 to 6, to obtain a laden absorbent, and b) the laden absorbent is regenerated with release of carbon dioxide at a pressure of from 5 to 50 bar (absolute pressure). a) the fluid stream is contacted with an absorbent which comprises a solution of ammonia and at least one aminocarboxylic acid and/or aminosulfonic acid, wherein the absorbent has an ammonia concentration of from 1 to 12 mol/l a molar ratio of ammonia:aminocarboxylic acid and/or aminosulfonic acid of from 0.5 to 6, to obtain a laden absorbent, and b) the laden absorbent is regenerated with release of carbon dioxide at a pressure of from 5 to 50 bar (absolute pressure).
A method, comprising: determining (S301; S401), by a base station, one or more delays between a random access channel and one or more repeated transmissions of a downlink control channel for a user equipment, depending at least on a repetition level of the random access channel and/or a repetition level of the downlink control channel; sending (S302; S402) to the user equipment, by the base station, information related to the determined one or more delays; receiving (S303; S403) from the user equipment, by the base station, the random access channel transmitted in a repetitive form; and sending (S304; S404) to the user equipment, by the base station, the one or more repeated transmissions of the downlink control channel, wherein each of the one or more repeated transmissions is transmitted according to a corresponding one of the one or more delays in a repetitive form. determining (S301; S401), by a base station, one or more delays between a random access channel and one or more repeated transmissions of a downlink control channel for a user equipment, depending at least on a repetition level of the random access channel and/or a repetition level of the downlink control channel; sending (S302; S402) to the user equipment, by the base station, information related to the determined one or more delays; receiving (S303; S403) from the user equipment, by the base station, the random access channel transmitted in a repetitive form; and sending (S304; S404) to the user equipment, by the base station, the one or more repeated transmissions of the downlink control channel, wherein each of the one or more repeated transmissions is transmitted according to a corresponding one of the one or more delays in a repetitive form.
An injection stretch blow moulded article (ISBM) comprising: a polypropylene copolymer composition having an ethylene content of 2.0 to 5.0 wt%; and a crystallisation temperature (Tc) of at least 90°C when subjected to a cooling rate of 10 K/s; a crystallisation temperature (Tc) of at least 55°C when subjected to a cooling rate of 100 K/s; and a crystallisation temperature (Tc) of at least 40°C when subjected to a cooling rate of 300 K/s; and optionally at least one nucleating agent; wherein the polypropylene copolymer composition comprises: 40 to 59 wt% of a first homopolymer fraction or first propylene copolymer fraction of propylene and one or more comonomers selected from ethylene and C4-C10 alpha-olefins said first fraction having a comonomer content of 0.0 to 1.8 wt%, and 60 to 41 wt% of a second propylene copolymer fraction. a polypropylene copolymer composition having an ethylene content of 2.0 to 5.0 wt%; and a crystallisation temperature (Tc) of at least 90°C when subjected to a cooling rate of 10 K/s; a crystallisation temperature (Tc) of at least 55°C when subjected to a cooling rate of 100 K/s; and a crystallisation temperature (Tc) of at least 40°C when subjected to a cooling rate of 300 K/s; and optionally at least one nucleating agent; wherein the polypropylene copolymer composition comprises: 40 to 59 wt% of a first homopolymer fraction or first propylene copolymer fraction of propylene and one or more comonomers selected from ethylene and C4-C10 alpha-olefins said first fraction having a comonomer content of 0.0 to 1.8 wt%, and 60 to 41 wt% of a second propylene copolymer fraction. a crystallisation temperature (Tc) of at least 90°C when subjected to a cooling rate of 10 K/s; a crystallisation temperature (Tc) of at least 55°C when subjected to a cooling rate of 100 K/s; and a crystallisation temperature (Tc) of at least 40°C when subjected to a cooling rate of 300 K/s; and optionally at least one nucleating agent; 40 to 59 wt% of a first homopolymer fraction or first propylene copolymer fraction of propylene and one or more comonomers selected from ethylene and C4-C10 alpha-olefins said first fraction having a comonomer content of 0.0 to 1.8 wt%, and 60 to 41 wt% of a second propylene copolymer fraction.
Antenna module for a motor vehicle, said motor vehicle comprising a vehicle body, wherein the antenna module comprises: - an antenna housing designed to be arranged partly inside the motor vehicle under said vehicle body and comprising: - at least one primary antenna; - at least one electronic component; - an upper cover on which said at least one primary antenna is arranged; - a lower cover designed to receive said at least one electronic component; - a metal sheet designed to be located inside the motor vehicle and arranged between said at least one primary antenna and said at least one electronic component in order to provide electrical shielding with just one element. - an antenna housing designed to be arranged partly inside the motor vehicle under said vehicle body and comprising: - at least one primary antenna; - at least one electronic component; - an upper cover on which said at least one primary antenna is arranged; - a lower cover designed to receive said at least one electronic component; - at least one primary antenna; - at least one electronic component; - an upper cover on which said at least one primary antenna is arranged; - a lower cover designed to receive said at least one electronic component; - a metal sheet designed to be located inside the motor vehicle and arranged between said at least one primary antenna and said at least one electronic component in order to provide electrical shielding with just one element.
A positive electrode for a secondary battery, the positive electrode comprising a positive electrode active material layer formed on a positive electrode collector, wherein the positive electrode active material layer has a double-layer structure which includes a first positive electrode active material layer formed on the positive electrode collector and a second positive electrode active material layer formed on the first positive electrode active material layer, the first positive electrode active material layer comprises a first positive electrode active material, a conductive agent, and a gas generating agent generating gas during overcharge, the second positive electrode active material layer comprises a second positive electrode active material, and characterized in that the gas generating agent comprises at least one selected from the group consisting of lithium carbonate and lithium oxalate.
A volume element (10a, 10b, 20a, 20b) for enclosing a working medium inside an inner volume of variable size, including a wall that divides the inner volume into heat exchanger compartments (110, 111, 120, 121) and a working compartment (200, 201), wherein - a partition (230, 231, 233, 234) is formed inside the working compartment (200, 201) which divides the working compartment (200, 201) into a working chamber (210, 211) supplied with the working medium and a force transmission chamber (212, 213) supplied with a displacement fluid, - the heat exchanger compartments (110, 111, 120, 121) and the working chamber (210, 211) are fluidly interconnected such that the working medium inside the volume element (10a, 10b, 20a, 20b) has the same pressure, and - each heat exchanger compartment (110, 111, 120, 121) is connected to the working chamber (210, 211) via an inlet and an outlet that is formed separately from the inlet, characterized in that a respective inlet or outlet is designed, as a connection between the heat exchanger compartments (110, 111, 120, 121) and the working chamber (210, 211), with at least one device for influencing the flow of working medium through the heat exchanger compartments (110, 111, 120, 121) so as to prevent a flow through at least one of the heat exchanger compartments (110, 111, 120, 121) and to support a flow through at least one other heat exchanger compartment (110, 111, 120, 121). - a partition (230, 231, 233, 234) is formed inside the working compartment (200, 201) which divides the working compartment (200, 201) into a working chamber (210, 211) supplied with the working medium and a force transmission chamber (212, 213) supplied with a displacement fluid, - the heat exchanger compartments (110, 111, 120, 121) and the working chamber (210, 211) are fluidly interconnected such that the working medium inside the volume element (10a, 10b, 20a, 20b) has the same pressure, and - each heat exchanger compartment (110, 111, 120, 121) is connected to the working chamber (210, 211) via an inlet and an outlet that is formed separately from the inlet,
A transmission apparatus (100, 300, 400, 500, 600) having a power amplifier that amplifies power of a transmission signal and capable of switching an operation mode of the power amplifier between saturation mode and non-saturation mode, the transmission apparatus (100, 300, 400, 500, 600) comprising: a power supply voltage adjustment circuit that controls power supply voltage supplied to the power amplifier; and an input signal amplitude adjustment circuit that inputs to a signal input terminal of the power amplifier a first input signal comprising an input signal subjected to amplitude adjustment, characterized by a bypass circuit (101, 301, 401, 501) that inputs to the signal input terminal of the power amplifier a second input signal bypassing the input signal amplitude adjustment circuit; and a bypass control circuit (103, 310) that switches an input for the power amplifier, wherein the bypass control circuit (103, 310) inputs the first input signal to the power amplifier when the power amplifier is operated in the non-saturation mode and inputs the second input signal to the power amplifier when the power amplifier is operated in the saturation mode. a power supply voltage adjustment circuit that controls power supply voltage supplied to the power amplifier; and an input signal amplitude adjustment circuit that inputs to a signal input terminal of the power amplifier a first input signal comprising an input signal subjected to amplitude adjustment,
A process for making a lithographic printing plate, comprising: a step of preparing a negative-working lithographic printing plate precursor comprising a photopolymerizable photosensitive layer above a support; a step of imagewise exposing the negative-working lithographic printing plate precursor; and a step of developing the exposed negative-working lithographic printing plate precursor by means of a developer comprising at least a compound represented by Formula as Component A, a compound represented by Formula as Component B, and water as Component C, wherein the photopolymerizable photosensitive layer is sensitive to infrared light and comprises a triphenylalkylborate salt or a tetraphenylborate salt, wherein in the Formulae, R 1 denotes a straight-chain or branched alkyl group having 4 to 8 carbons, preferably a n -butyl group, a n -hexyl group, or a 2-ethylhexyl group; R 2 and R 3 independently denote a hydrogen atom or a methyl group and when either one of R 2 and R 3 is a methyl group the other is a hydrogen atom, and R 2 and R 3 are preferably both hydrogen atoms; n denotes 1 or 2, preferably 1; R 4 denotes a substituted or unsubstituted phenyl group, 1-naphthyl group, or 2-naphthyl group, preferably a substituted or unsubstituted 1-naphthyl group or 2-naphthyl group, and m denotes an integer of 4 to 20, preferably 9 to 16. a step of preparing a negative-working lithographic printing plate precursor comprising a photopolymerizable photosensitive layer above a support; a step of imagewise exposing the negative-working lithographic printing plate precursor; and a step of developing the exposed negative-working lithographic printing plate precursor by means of a developer comprising at least a compound represented by Formula as Component A, a compound represented by Formula as Component B, and water as Component C, wherein the photopolymerizable photosensitive layer is sensitive to infrared light and comprises a triphenylalkylborate salt or a tetraphenylborate salt, R 1 denotes a straight-chain or branched alkyl group having 4 to 8 carbons, preferably a n -butyl group, a n -hexyl group, or a 2-ethylhexyl group; R 2 and R 3 independently denote a hydrogen atom or a methyl group and when either one of R 2 and R 3 is a methyl group the other is a hydrogen atom, and R 2 and R 3 are preferably both hydrogen atoms; n denotes 1 or 2, preferably 1; R 4 denotes a substituted or unsubstituted phenyl group, 1-naphthyl group, or 2-naphthyl group, preferably a substituted or unsubstituted 1-naphthyl group or 2-naphthyl group, and m denotes an integer of 4 to 20, preferably 9 to 16.