mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for an aircraft passenger cabin, comprising: a seating area including a first passenger seat and a second passenger seat; a monument disposed forward of the seating area; a guide track; and a first privacy divider (302, 802, 902) which stows within the monument, and deploys along the guide track outside of the monument, in a direction of the first and second passenger seats (202, 204) to divide a first portion of the seating area forward of the first and second passenger seats (202, 204); a second privacy divider (304, 804, 904) which deploys to divide a second portion of the seating area between the first and second passenger seats (202, 204); wherein the first privacy divider (302, 802, 902) deploys to meet one end of the second privacy divider (304, 804, 904) such that when the first privacy divider (302, 802, 902) is fully deployed the first and second privacy dividers (302, 304; 802, 804; 902, 904) together form one continuous privacy divider dividing the seating area in a longitudinal direction; and wherein the first privacy divider (302, 802, 902) deploys horizontally from within the monument in the direction toward the first and second passenger seats (202, 204) to divide the first portion of the seating area forward of the first and second passenger seats (202, 204), and the second privacy divider (304, 804, 904) is disposed between the first and second passenger seats (202, 204) and deploys vertically upward to divide the second portion of the seating area between the first and second passenger seats (202, 204). a seating area including a first passenger seat and a second passenger seat; a monument disposed forward of the seating area; a guide track; and a first privacy divider (302, 802, 902) which stows within the monument, and deploys along the guide track outside of the monument, in a direction of the first and second passenger seats (202, 204) to divide a first portion of the seating area forward of the first and second passenger seats (202, 204); a second privacy divider (304, 804, 904) which deploys to divide a second portion of the seating area between the first and second passenger seats (202, 204); wherein the first privacy divider (302, 802, 902) deploys to meet one end of the second privacy divider (304, 804, 904) such that when the first privacy divider (302, 802, 902) is fully deployed the first and second privacy dividers (302, 304; 802, 804; 902, 904) together form one continuous privacy divider dividing the seating area in a longitudinal direction; and wherein the first privacy divider (302, 802, 902) deploys horizontally from within the monument in the direction toward the first and second passenger seats (202, 204) to divide the first portion of the seating area forward of the first and second passenger seats (202, 204), and the second privacy divider (304, 804, 904) is disposed between the first and second passenger seats (202, 204) and deploys vertically upward to divide the second portion of the seating area between the first and second passenger seats (202, 204).
A process for producing a titanium dioxide pigment for plastics resin compositions, the process comprising the steps of: (a) dispersing titanium dioxide particles in water to obtain an aqueous slurry of titanium dioxide particles, wherein the solid matter concentration of titanium dioxide particles in the aqueous slurry is 50-800 g/liter; (b) adding silicate to the aqueous slurry of titanium dioxide particles and then neutralizing the aqueous slurry with an acidic compound over a period of 30 minutes or more to form a hydrous silica coating on the surface of the titanium dioxide particles, wherein the neutralization pH is in the range of 4-7.5 and the temperature of the aqueous slurry during neutralization is at least 80°C; and (c) forming an organic compound coating on the surface of the hydrous silica coating of the titanium dioxide particles, wherein formation of the organic compound coating comprises the steps of: (i) solid-liquid separating the titanium dioxide particles having a hydrous silica coating on their surface from the aqueous slurry, drying the separated titanium dioxide particles obtained thereby, and contacting the dried titanium dioxide particles with the organic compound in a gaseous phase to form the organic compound coating, or (ii) contacting the titanium dioxide particles having a hydrous silica coating on their surface with the organic compound in the aqueous slurry. (a) dispersing titanium dioxide particles in water to obtain an aqueous slurry of titanium dioxide particles, wherein the solid matter concentration of titanium dioxide particles in the aqueous slurry is 50-800 g/liter; (b) adding silicate to the aqueous slurry of titanium dioxide particles and then neutralizing the aqueous slurry with an acidic compound over a period of 30 minutes or more to form a hydrous silica coating on the surface of the titanium dioxide particles, wherein the neutralization pH is in the range of 4-7.5 and the temperature of the aqueous slurry during neutralization is at least 80°C; and (c) forming an organic compound coating on the surface of the hydrous silica coating of the titanium dioxide particles, wherein formation of the organic compound coating comprises the steps of: (i) solid-liquid separating the titanium dioxide particles having a hydrous silica coating on their surface from the aqueous slurry, drying the separated titanium dioxide particles obtained thereby, and contacting the dried titanium dioxide particles with the organic compound in a gaseous phase to form the organic compound coating, or (ii) contacting the titanium dioxide particles having a hydrous silica coating on their surface with the organic compound in the aqueous slurry. (i) solid-liquid separating the titanium dioxide particles having a hydrous silica coating on their surface from the aqueous slurry, drying the separated titanium dioxide particles obtained thereby, and contacting the dried titanium dioxide particles with the organic compound in a gaseous phase to form the organic compound coating, or (ii) contacting the titanium dioxide particles having a hydrous silica coating on their surface with the organic compound in the aqueous slurry.
A method comprising: identifying a current source block (340, 610-650) from a current source frame from a source video stream; generating a prediction block for the current source block (340,610-650) using either intra-frame prediction or inter-frame prediction, wherein intra-frame prediction includes generating the prediction block from samples in the current source frame that have been previously encoded and reconstructed and wherein inter-frame prediction includes generating the prediction block from samples in one or more previously constructed reference frames; generating a source transform block by transforming the current source block (340,610-650) into the frequency domain; generating a prediction transform block by transforming the prediction block into the frequency domain; generating, by a processor in response to instructions stored on a non-transitory computer readable medium, a denoised transform block based on the source transform block and the prediction transform block; generating a denoised block by inverse transforming the denoised transform block; generating a residual block based on a difference between the denoised block and the prediction block; generating an encoded block by encoding the residual block; and outputting or storing the encoded block. identifying a current source block (340, 610-650) from a current source frame from a source video stream; generating a prediction block for the current source block (340,610-650) using either intra-frame prediction or inter-frame prediction, wherein intra-frame prediction includes generating the prediction block from samples in the current source frame that have been previously encoded and reconstructed and wherein inter-frame prediction includes generating the prediction block from samples in one or more previously constructed reference frames; generating a source transform block by transforming the current source block (340,610-650) into the frequency domain; generating a prediction transform block by transforming the prediction block into the frequency domain; generating, by a processor in response to instructions stored on a non-transitory computer readable medium, a denoised transform block based on the source transform block and the prediction transform block; generating a denoised block by inverse transforming the denoised transform block; generating a residual block based on a difference between the denoised block and the prediction block; generating an encoded block by encoding the residual block; and outputting or storing the encoded block.
A communications device comprising electronic circuitry; the electronic circuitry being configured to: receive a position request message requesting determination of a position of a wireless terminal, the position request message including a position uncertainty criteria; and characterized in that the electronic circuitry is configured to: determine whether a confidence differential exists between a confidence reporting characteristic of the wireless terminal and a confidence criteria known to the communications device; as a result of determining that a confidence differential exists, scale the position uncertainty criteria to obtain a scaled position uncertainty criteria for use by the wireless terminal; transmit the scaled position uncertainty parameter to the wireless terminal; and to receive from the wireless terminal information comprising a reported position uncertainty parameter and a reported confidence parameter, and to re-scale the reported position uncertainty parameter as a result of the confidence differential in a manner so that the position uncertainty criteria is satisfied, the reported position uncertainty parameter being based on the scaled position uncertainty criteria and the reported confidence parameter being based on the confidence reporting characteristic of the wireless terminal, and receive a position request message requesting determination of a position of a wireless terminal, the position request message including a position uncertainty criteria; and characterized in that the electronic circuitry is configured to: determine whether a confidence differential exists between a confidence reporting characteristic of the wireless terminal and a confidence criteria known to the communications device; as a result of determining that a confidence differential exists, scale the position uncertainty criteria to obtain a scaled position uncertainty criteria for use by the wireless terminal;
A pharmaceutical formulation, comprising a fumarate salt of dimethyltryptamine, optionally substituted with deuterium; a buffer which is separate to the salt; and water, wherein the formulation has a pH of 3.5 ± 5% to 6.5 ± 5% and an osmolality of 250 ± 5% to 350 ± 5% mOsm/Kg.
A method for generating a transmit sequence in a single carrier frequency division multiple access, SC-FDMA, transmitter, comprising: generating a first time domain sequence, the first time domain sequence having a constant amplitude and zero autocorrelation properties; transforming the first time domain sequence to a first frequency domain sequence according to a first transform; said method being characterized by: distributing the first frequency domain sequence among a subset of subcarriers among a plurality of subcarriers in a second frequency domain sequence; transforming the second frequency domain sequence to a second time domain sequence according to a second transform; and adding a cyclic prefix to the second time domain sequence to form said transmit sequence. generating a first time domain sequence, the first time domain sequence having a constant amplitude and zero autocorrelation properties; transforming the first time domain sequence to a first frequency domain sequence according to a first transform; said method being characterized by: distributing the first frequency domain sequence among a subset of subcarriers among a plurality of subcarriers in a second frequency domain sequence; transforming the second frequency domain sequence to a second time domain sequence according to a second transform; and adding a cyclic prefix to the second time domain sequence to form said transmit sequence. distributing the first frequency domain sequence among a subset of subcarriers among a plurality of subcarriers in a second frequency domain sequence; transforming the second frequency domain sequence to a second time domain sequence according to a second transform; and adding a cyclic prefix to the second time domain sequence to form said transmit sequence.
A radio communication system, comprising a base station; a first UE; and a second UE, wherein the base station comprises: an apparatus for configuring indication information; and an apparatus for configuring modification period; the apparatus for configuring indication information comprises: an indicator setting unit, configured to set at least two indicators for indicating a system information change, the at least two indicators being applied to the first UE configured with a paging cycle shorter than or equal to a modification period of the system information and the second UE configured with a paging cycle longer than the modification period of the system information; and an indicator sending unit, configured to send the indicators to the first UE and/or the second UE, wherein the first UE is configured to acquire changed system information according to the modification period and/or the second UE is configured to acquire changed system information according to a different modification period; the first UE comprises: an apparatus for acquiring system information in a modification period; the second UE comprises: an apparatus for acquiring the different modification period; and an apparatus for acquiring system information in the different modification period. an apparatus for configuring indication information; and an apparatus for configuring modification period; an indicator setting unit, configured to set at least two indicators for indicating a system information change, the at least two indicators being applied to the first UE configured with a paging cycle shorter than or equal to a modification period of the system information and the second UE configured with a paging cycle longer than the modification period of the system information; and an indicator sending unit, configured to send the indicators to the first UE and/or the second UE, wherein the first UE is configured to acquire changed system information according to the modification period and/or the second UE is configured to acquire changed system information according to a different modification period; the first UE comprises: an apparatus for acquiring system information in a modification period; the second UE comprises: an apparatus for acquiring the different modification period; and an apparatus for acquiring system information in the different modification period. an apparatus for acquiring the different modification period; and an apparatus for acquiring system information in the different modification period.
Arrangement comprising a rotatable disc-shaped holder for grinding tools and further comprising grinding segments, which can be releasably attached in radially directed, towards the periphery of the disc tapering grooves in the holder in question, characterized in that a number of magnets are arranged between the holder and the grinding segments in question in order to hold the respective grinding segments in intended working position, in which they are intended to be held, that said number of magnets in question is/are arranged to hold the grinding segments in the intended holding positions by forming obstacles, whereby the shape of a recess, which is located in the rear inner end of the respective holding groove at the middle of the groove, i.e. across said groove, is adapted to the shape of a magnet in order to receive said magnet in the recess made in the holder, whereby said magnet, which is received in said recess, is arranged to prevent bringing back of the grinding segment in question, which is received in the associated groove with its bottom portion.
A method of producing a gel film comprising sheets of graphene or chemically converted graphene at least partially separated by a dispersion medium and arranged in a substantially planar manner to form an electrically conductive matrix, wherein • gel film is an organogel or hydrogel conductive gel film • said sheets together form an electrically conductive interconnected matrix; the method comprising the steps of: ▪ contacting a surface with dispersion medium comprising sheets of graphene or chemically converted graphene dispersed therein having a concentration in the range of from 0.1 mg/ml to 1 mg/ml; ▪ removing some of the dispersion medium from the surface and allowing the sheets to self-assemble to form a gel film on the surface by subjecting it to an increase in temperature; the method further comprises the step of: • increasing the temperature of the dispersion medium comprising sheets of graphene or chemically converted graphene dispersed therein to at least 100 °C; wherein the temperature is increased to control the resultant inter-sheet spacing in the gel film that forms on the surface. • gel film is an organogel or hydrogel conductive gel film • said sheets together form an electrically conductive interconnected matrix; ▪ contacting a surface with dispersion medium comprising sheets of graphene or chemically converted graphene dispersed therein having a concentration in the range of from 0.1 mg/ml to 1 mg/ml; ▪ removing some of the dispersion medium from the surface and allowing the sheets to self-assemble to form a gel film on the surface by subjecting it to an increase in temperature; • increasing the temperature of the dispersion medium comprising sheets of graphene or chemically converted graphene dispersed therein to at least 100 °C; wherein the temperature is increased to control the resultant inter-sheet spacing in the gel film that forms on the surface.
Pigment preparation comprising metal effect pigments in compacted form, characterised in that the pigment preparation comprises the following components: a) 60 - 95 % by weight of at least one metal effect pigment having at least one low refractive layer on the metallic core of the metal effect pigment, the refractive index of the low refractive layer being less than 2.2 and the low refractive layer containing or comprising at least one inorganic component, b) 0.5 - 40 % by weight of a binding agent which is free from styrene groups having an acid number of 150 - 500 mg KOH/g binding agent and a melting point or melting range in the range of 120 - 200°C, c) a residual moisture content in the range of 0 - 15 % by weight of water and/or organic solvent or solvent mixture, d) optionally neutralising agent. a) 60 - 95 % by weight of at least one metal effect pigment having at least one low refractive layer on the metallic core of the metal effect pigment, the refractive index of the low refractive layer being less than 2.2 and the low refractive layer containing or comprising at least one inorganic component, b) 0.5 - 40 % by weight of a binding agent which is free from styrene groups having an acid number of 150 - 500 mg KOH/g binding agent and a melting point or melting range in the range of 120 - 200°C, c) a residual moisture content in the range of 0 - 15 % by weight of water and/or organic solvent or solvent mixture, d) optionally neutralising agent.
A method in a user equipment for reporting measurement, the user equipment is configured to communicate with a wireless communication system, the method comprising - including measurement information in a message, wherein the measurement information is collected in a first radio access technology, RAT; and wherein the method is characterized in - transmitting the message to a receiving entity comprised in the wireless communication system via a network node utilizing a second RAT, wherein the second RAT is different from the first RAT, wherein including measurement information in a message comprising - introducing a receiver address field in the message, wherein the receiver address field comprises a receiver address of the receiving entity which is possible to decode by at least the network node in the second RAT, wherein including measurement information in a message comprising - encapsulating the measurement information in a container structure using a message format of the first RAT, and wherein including measurement information in a message comprising - introducing a RAT indicator which indicates the first RAT where the measurement information is collected; and - encoding the indicator using a message format of the second RAT. - including measurement information in a message, wherein the measurement information is collected in a first radio access technology, RAT; and wherein the method is characterized in - transmitting the message to a receiving entity comprised in the wireless communication system via a network node utilizing a second RAT, wherein the second RAT is different from the first RAT, wherein including measurement information in a message comprising - introducing a receiver address field in the message, wherein the receiver address field comprises a receiver address of the receiving entity which is possible to decode by at least the network node in the second RAT, wherein including measurement information in a message comprising - encapsulating the measurement information in a container structure using a message format of the first RAT, and wherein including measurement information in a message comprising - introducing a RAT indicator which indicates the first RAT where the measurement information is collected; and - encoding the indicator using a message format of the second RAT.
A brake system, in particular wedge drum brake for utility vehicles, comprising a transmission element and a piston element, wherein the transmission element is guided displaceably along a transmission axis, wherein the piston element is guided displaceably transversely with respect to the transmission axis, wherein the transmission element has a transmission surface which is oriented in an inclined manner with respect to the transmission axis, wherein the piston element is supported with a piston surface substantially directly on the transmission surface, wherein a displacement of the transmission element along the transmission axis causes a displacement of the piston element substantially transversely with respect to the transmission axis, wherein the transmission surface and/or the piston surface are/is of curved design, characterized in that in a first state of the brake system, the transmission surface in a first transmission portion lies against a first piston portion of the piston surface, wherein, in a second state of the brake system, the transmission surface in a second transmission portion lies against a second piston portion of the piston surface, wherein the first transmission portion extends substantially pivoted about a first angle (α 1) with respect to the transmission axis, wherein the second transmission portion extends substantially pivoted about a second angle (α 2) with respect to the transmission axis, and wherein the second angle (α 2) is preferably of a smaller value than the first angle (α 1).
Structural element for an aircraft fuselage, said structural element being in the general shape of a profile which is elongate in a longitudinal direction and comprising two wings (4, 6; 104, 106; 204, 206), each wing comprising a part (8, 10; 108, 110; 208, 210) which extends uninterrupted over the entire length of the profile characterised in that each wing comprises legs (14, 16; 114, 116; 214, 216) which are spaced apart from one another and extend from this uninterrupted part so as to define an opening (17, 18; 117, 118; 217, 218) between two consecutive legs, one of the legs of a wing being arranged opposite at least part of the opening defined between two consecutive legs of the other wing.