mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication at a user equipment, UE, comprising: identifying that an uplink data transmission scheduled for transmission by the UE in a first transmission time interval overlaps with multiple uplink control transmissions scheduled for transmission by the UE during corresponding second transmission time intervals that are shorter in duration than the first transmission time interval; determining whether the multiple uplink control transmissions satisfy a scheduling constraint that is based at least in part on uplink control transmission types of the multiple uplink control transmissions that overlap with the uplink data transmission; and transmitting the uplink data transmission and the multiple uplink control transmissions based at least in part on the scheduling constraint being satisfied. identifying that an uplink data transmission scheduled for transmission by the UE in a first transmission time interval overlaps with multiple uplink control transmissions scheduled for transmission by the UE during corresponding second transmission time intervals that are shorter in duration than the first transmission time interval; determining whether the multiple uplink control transmissions satisfy a scheduling constraint that is based at least in part on uplink control transmission types of the multiple uplink control transmissions that overlap with the uplink data transmission; and transmitting the uplink data transmission and the multiple uplink control transmissions based at least in part on the scheduling constraint being satisfied.
Roof window comprising at least one thermoplastic window frame, wherein the window frame comprises glass unit , and is constructed out of upper stile , lower stile and two side stiles welded to one another in window frame corners and inside window frame stiles there are chambers, where the window frame lower stile comprises a flange , said flange and the window frame lower stile constituting a uniform element made using an extrusion method, characterized in that the flange sides terminate with end caps , said flange forms a continuation of the top wall of the lower stile and said flange creates together with an end cap a trough, which constitutes a discharge path for condensate collected by the glass unit to the outside of the window onto the roof covering.
An image processing apparatus comprising: first obtaining means for obtaining an image based on an image picked up by a wide-angle image pickup unit; second obtaining means for obtaining installation direction information regarding an image pickup direction of the wide-angle image pickup unit; determining means for determining, on the basis of the installation direction information obtained by the second obtaining means, a priority area for execution of an object detecting process, wherein the priority area is a part of the image obtained by the first obtaining means; and detecting means for executing the object detecting process in accordance with the determination of the determining means, wherein the object detecting process is executed in a whole area of the image starting from the priority area. first obtaining means for obtaining an image based on an image picked up by a wide-angle image pickup unit; second obtaining means for obtaining installation direction information regarding an image pickup direction of the wide-angle image pickup unit; determining means for determining, on the basis of the installation direction information obtained by the second obtaining means, a priority area for execution of an object detecting process, wherein the priority area is a part of the image obtained by the first obtaining means; and detecting means for executing the object detecting process in accordance with the determination of the determining means, wherein the object detecting process is executed in a whole area of the image starting from the priority area.
A layered structure comprising a first electrode; a second electrode; a light emitting layer or a charge separation layer located between the first electrode and the second electrode; and a layer located between the light emitting layer or the charge separation layer and the first electrode and containing a polymer having a repeating unit represented by the formula : wherein the layered structure contains the polymer comprising the repeating unit represented by the formula in an amount of from 15 to 100 mol% in all the repeating units, wherein in the formula , Ar 1 represents an aromatic group having a valence of (2+n4) which may or may not have a substituent other than R 1 , n4 represents an integer of 1 or greater, and when a plurality of R 1 s are present, they may be the same or different, and characterized in that R 1 represents a monovalent group containing a group represented by the formula ; wherein in the formula , R 2 represents an organic group having a valence of (1+m1+m2), Q 1 represents a divalent organic group, Y 1 represents -CO 2 , -SO 3 - , -SO 2 , or -PO 3 2- , M 1 represents a metal cation or an ammonium cation with or without a substituent, Z 1 represents F - , Cl - , Br - , I - , OH - , B(R a ) 4 - , R a SO 3 - , R a COO - , ClO - , ClO 2 - , ClO 3 - , ClO 4 - , SCN - , CN - , NO 3 - , SO 4 2- , HSO 4 - , PO 4 3- , HPO 4 2- , H 2 PO 4 - , BF 4 - , or PF 6 - , n1 represents an integer of 0 or greater, a1 represents an integer of 1 or greater, and b1 represents an integer of 0 or greater, with the proviso that a1 and b1 are selected so that the charge of the group represented by -{Q 1 ) n1 -Y 1 M 1 ) a1 (Z 1 ) b1 )} is 0, R a represents an alkyl group having from 1 to 30 carbon atoms with or without a substituent or an aryl group having from 6 to 50 carbon atoms with or without a substituent, Q 3 is -CH 2 -, Y 3 represents -CN or a group represented by any of the formulas to , and n3 represents an integer of 0 or greater; -O-(R'O) a3 -R" -S-(R'S) a4 -R" -C(=O)-(R'-C(=O)) a4 -R" -C(=S)-(R'-C(=S)) a4 -R" -N{(R') a4 R"} 2 -C(=O)O-(R'-C(=O)O) a4 -R" -C(=O)O-(R'O) a4 -R" -NHC(=O)-(R'NHC(=O)) a4 -R" , wherein in the formulas to , R' represents a divalent hydrocarbon group with or without a substituent, R" represents a hydrogen atom, a monovalent hydrocarbon group with or without a substituent, -COOH, -SO 3 H, -OH, -SH, -NR c 2 , -CN or - C(=O)NR c 2 , R'" represents a trivalent hydrocarbon group with or without a substituent, a3 represents an integer of 1 or greater, a4 represents an integer of 0 or greater, and R c represents an alkyl group having from 1 to 30 carbon atoms with or without a substituent or an aryl group having from 6 to 50 carbon atoms with or without a substituent, with the proviso that when there is a plurality of any one or more of R', R", and R"', each item of each plurality may be the same or different from other items of the plurality, m1 and m2 each independently represent an integer of 1 or greater, and when there is a plurality of any one or more of Q 1 , Q 3 , Y 1 , M 1 , Z 1 , Y 3 , n1, a1, b1, and n3, each item of each plurality may be the same or different from other items of the plurality.
A method for enhancing an edge transition in a video signal comprising the steps of: receiving a video signal including an edge transition; generating a correction signal for the edge transition; measuring the maximum and minimum amplitude of pixels in a predetermined pattern adjacent to the edge transition; calculating extended maximum and minimum amplitude limits by extending the range between the measured maximum and minimum amplitudes by an amount proportional to the difference between the measured maximum and minimum amplitudes; applying the correction signal to the video signal to produce a corrected signal; and restricting the amplitude of the corrected signal to be between the extended maximum and minimum amplitude limits. receiving a video signal including an edge transition; generating a correction signal for the edge transition; measuring the maximum and minimum amplitude of pixels in a predetermined pattern adjacent to the edge transition; calculating extended maximum and minimum amplitude limits by extending the range between the measured maximum and minimum amplitudes by an amount proportional to the difference between the measured maximum and minimum amplitudes; applying the correction signal to the video signal to produce a corrected signal; and restricting the amplitude of the corrected signal to be between the extended maximum and minimum amplitude limits.
Method carried out by a computer for determining a region of interest to be rendered in an ultrasound volume data set (3D-US) of the interior of an object under examination (B), comprising at least the following steps: - automatically determining a projection position (PR1, PR2) in a two dimensional X-ray projection image (RB) of the object under examination (B), wherein a projection ray (R1, R2) assigned to the projection position (PR1, PR2) passes through the region of interest and - extracting a partial data set (CBV1, CBV1', CBV1 ", CBV2) encompassed by the ultrasound volume data set (3D-US) using the projection position (PR1, PR2) and on the basis of geometrical information (GI) relating to the X-ray 3D ultrasound unit , wherein the selection of the data takes place according to a correlation between the projection position and at least some of the data of the ultrasound volume data set corresponding to the projection position. - automatically determining a projection position (PR1, PR2) in a two dimensional X-ray projection image (RB) of the object under examination (B), wherein a projection ray (R1, R2) assigned to the projection position (PR1, PR2) passes through the region of interest and - extracting a partial data set (CBV1, CBV1', CBV1 ", CBV2) encompassed by the ultrasound volume data set (3D-US) using the projection position (PR1, PR2) and on the basis of geometrical information (GI) relating to the X-ray 3D ultrasound unit , wherein the selection of the data takes place according to a correlation between the projection position and at least some of the data of the ultrasound volume data set corresponding to the projection position.
A mounting system for mounting a panel onto a surface, the system comprising a protective panel having a panel surface which comprises one or more portions and one or more portions of a reusable mounting system provided on the one or more portions of the panel surface wherein the reusable mounting system is adapted to engage with the surface having corresponding portions which are provided with the reusable mounting system wherein the reusable mounting system comprises a hook material and a loop material of a hook and loop system characterised in that - the mounting system has a sliding layer which is shaped to shield the reusable mounting system such that the panel can be slid into position without the reusable mounting system engaging; and in that - the sliding layer is a removable release sheet . - the mounting system has a sliding layer which is shaped to shield the reusable mounting system such that the panel can be slid into position without the reusable mounting system engaging; and in that - the sliding layer is a removable release sheet .
Method for making pressed pieces, wherein in two sequentially rotating moulder tool holders around a horizontal axis of rotation , there is at least one press mould with at least one feeder for charging material , wherein at least one press mould is correspondingly arranged or movable to at least one pre-press die , to at least one main press die , and to at least one ejection die , with the working direction of at least one pre-press die , at least one main press die , and at least one ejection die being parallel to each other, and on the side of the press mould or moulder tool holder facing and/or opposite at least one pre-press die there is a counter-press plate and on the side facing at least one main press die of the respective press mould there is a fixed counter-press plate , at least one press mould is continuous in the working direction, wherein a pre-press channel opens into each press mould , with at least one pre-press die being arranged in at least one pre-press channel or opening into it, - wherein with at least one press mould a centre-positioning die arranged on the side of the respective press mould or moulder tool holder opposite the respective pre-press die is connected, with the working direction of the centre-positioning die being opposite to that of the pre-press die and the centre-positioning die existing on the side of the respective press mould or moulder tool holder opposite the respective pre-press die being part of or a part of the counter-press plate , - the counter-press plate arranged on the side of the respective press mould facing at least one pre-press die is pivotable or movable, and - two moulder tool holders are spaced apart and at least one respective main press die is alternately driven by a common main press cylinder or drive arranged between the moulder tool holders . - wherein with at least one press mould a centre-positioning die arranged on the side of the respective press mould or moulder tool holder opposite the respective pre-press die is connected, with the working direction of the centre-positioning die being opposite to that of the pre-press die and the centre-positioning die existing on the side of the respective press mould or moulder tool holder opposite the respective pre-press die being part of or a part of the counter-press plate , - the counter-press plate arranged on the side of the respective press mould facing at least one pre-press die is pivotable or movable, and - two moulder tool holders are spaced apart and at least one respective main press die is alternately driven by a common main press cylinder or drive arranged between the moulder tool holders .
A method for making sulfur charged carbon nanotubes, comprising: dissolving sublimed sulfur particles in an initial solvent to create a solution; adding carbon nanotubes to the solution, each carbon nanotube having an exterior wall, wherein the sublimed sulfur is about 50 to 98 percent of the final combined sulfur-nanotube mixture by weight; adding a polar protic solvent to the solution by drops at a controlled rate to create sulfur particles; and removing the initial solvent from the solution by evaporation, wherein at least a first portion of the sulfur particles fills the plurality of carbon nanotubes by nanocapillary action; and at least a second portion of the sulfur particles is pi-bonded to the exterior walls of the carbon nanotubes. dissolving sublimed sulfur particles in an initial solvent to create a solution; adding carbon nanotubes to the solution, each carbon nanotube having an exterior wall, wherein the sublimed sulfur is about 50 to 98 percent of the final combined sulfur-nanotube mixture by weight; adding a polar protic solvent to the solution by drops at a controlled rate to create sulfur particles; and removing the initial solvent from the solution by evaporation, wherein at least a first portion of the sulfur particles fills the plurality of carbon nanotubes by nanocapillary action; and at least a second portion of the sulfur particles is pi-bonded to the exterior walls of the carbon nanotubes.
Asbestos sample preparation method for the analysis of asbestos in a raw material sample possibly containing asbestos, characterised in that the raw material sample is treated with a liquid in a sample container is added with a liquid and wherein the raw material sample is subjected to a treatment process , whereby the raw material sample is suspended in the liquid.
An accessory that can be attached to a camera body , the camera body including a first camera-side clock terminal (CLK(B)) that outputs a first clock signal, a first camera-side data terminal (DATAB(B)) that outputs a first data signal in synchronization with the first clock signal, and a third camera-side data terminal (DATAL(B)) to which a third data signal is input in synchronization with the first clock signal, the accessory comprising at least three terminals, of which: an eighth terminal (CLK(L)) is arranged to be brought into contact with the first camera-side clock terminal; a seventh terminal (DATAB(L)) is arranged to be brought into contact with the first camera-side data terminal; and a ninth terminal (DATAL(L)) is arranged to be brought into contact with the third camera-side data terminal, wherein the eighth terminal is positioned between and adjacent to the seventh terminal and the ninth terminal. an eighth terminal (CLK(L)) is arranged to be brought into contact with the first camera-side clock terminal; a seventh terminal (DATAB(L)) is arranged to be brought into contact with the first camera-side data terminal; and a ninth terminal (DATAL(L)) is arranged to be brought into contact with the third camera-side data terminal, wherein the eighth terminal is positioned between and adjacent to the seventh terminal and the ninth terminal.
A method for signing a new block of a blockchain of a distributed blockchain consensus network, 'DBCN', comprising a mining computing entity, 'MCE', and a node computing entity said method comprising the steps of i. At least one of signing and/or encrypting of predefined MCE information by said MCE, using a secret key of a public key/secret key key pair of said MCE to obtain hidden information, 'HI', ii. Signing a new block by said MCE using said secret key and block height information to create a signature for said new block iii. In case of at least one further signing of a different block with the respective same block height information by said MCE, providing reveal information to reveal said HI to said DBCN by another node computing entity of said DBCN when said node computing entity has received two signatures comprising the same corresponding block height information. i. At least one of signing and/or encrypting of predefined MCE information by said MCE, using a secret key of a public key/secret key key pair of said MCE to obtain hidden information, 'HI', ii. Signing a new block by said MCE using said secret key and block height information to create a signature for said new block iii. In case of at least one further signing of a different block with the respective same block height information by said MCE, providing reveal information to reveal said HI to said DBCN by another node computing entity of said DBCN when said node computing entity has received two signatures comprising the same corresponding block height information.
System for insulating buildings from the outside comprising - an insulation - covered with sheets of cladding , characterized in that the resistance of the sheets of cladding and any other parts of the said insulating system that covers them to the diffusion of water vapour corresponds to an equivalent air thickness S d of at most 0.40 m, preferably 0.30 m and more particularly preferably, 0.20 m. - an insulation - covered with sheets of cladding ,
A seat pan for a vehicle seat , configured to be arranged at a seat frame and configured to be covered by a cushion to support the cushion from underneath wherein the seat pan covers an entire cushion area of the vehicle seat , and wherein the seat pan comprises a rear portion and a front portion , wherein the seat pan comprises a flexible area arranged between the rear portion and the front portion wherein the flexible area is positioned at a distance below and in parallel to a pivot axis, said flexible area enabling the front portion to be arranged in a tilted state relative to the rear portion around the pivot axis and wherein the seat pan is formed in a single piece, characterized in that the seat pan comprises openings (A) for attaching the seat pan to the seat frame , and the flexible area is positioned in parallel to the pivot axis that is defined by the openings (A), and between the front portion and the back portion of the seat pan .
A method performed by a transmission terminal (102, 302, 902-1, 1300) in a communication system, the method comprising: identifying whether neural network coefficient information related to the transmission terminal (102, 302, 902-1, 1300) has been stored in a reception terminal ; transmitting, to the reception terminal , neural network structure information related to the transmission terminal (102, 302, 902-1, 1300) based on the neural network coefficient information identified as having been stored in the reception terminal ; generating a wideband voice signal based on an inputted voice; generating a narrowband voice signal by down-sampling the wideband voice signal; and transmitting the narrowband voice signal to the reception terminal . identifying whether neural network coefficient information related to the transmission terminal (102, 302, 902-1, 1300) has been stored in a reception terminal ; transmitting, to the reception terminal , neural network structure information related to the transmission terminal (102, 302, 902-1, 1300) based on the neural network coefficient information identified as having been stored in the reception terminal ; generating a wideband voice signal based on an inputted voice; generating a narrowband voice signal by down-sampling the wideband voice signal; and transmitting the narrowband voice signal to the reception terminal .