mhurhangee/ep-ind-claims huggingface dataset:
An electronic metering apparatus for metering liquids with - a drive with an electric motor, - at least one displacer device (9, 10) with a displacer element, which is connected and/or connectable to the drive, - an electric mode key and an electric parameter key for changeover between different menus, - a pair of electric control keys (20, 21) for the navigation in the menus and controlling the dislocation of the displacer element, wherein the two control keys (20, 21) control the navigation in the menus, the setting of parameters and the dislocation of the displacer element in different directions, - a rotatable setting button, - an electronic display device for displaying menus and parameters, - an electric control unit, which is connected to the electric motor, the electric mode key, the electric parameter key, the electric control keys (20, 21) and the electric display device and which controls the display of menus and parameters by the display device as well as the dislocation of the displacer element corresponding to the actuation of the mode key, the parameter key and the control keys (20, 21), - the control unit controls the display of certain modes of operation of the metering apparatus concerning submenus according to the actuation of the setting button and by means of the setting button a quick changeover between different operation modes is possible, - and an electric power supply. - a drive with an electric motor, - at least one displacer device (9, 10) with a displacer element, which is connected and/or connectable to the drive, - an electric mode key and an electric parameter key for changeover between different menus, - a pair of electric control keys (20, 21) for the navigation in the menus and controlling the dislocation of the displacer element, wherein the two control keys (20, 21) control the navigation in the menus, the setting of parameters and the dislocation of the displacer element in different directions, - a rotatable setting button, - an electronic display device for displaying menus and parameters, - an electric control unit, which is connected to the electric motor, the electric mode key, the electric parameter key, the electric control keys (20, 21) and the electric display device and which controls the display of menus and parameters by the display device as well as the dislocation of the displacer element corresponding to the actuation of the mode key, the parameter key and the control keys (20, 21), - the control unit controls the display of certain modes of operation of the metering apparatus concerning submenus according to the actuation of the setting button and by means of the setting button a quick changeover between different operation modes is possible, - and an electric power supply.
A guest-host liquid crystal dye mixture comprising a calamatic, thermotropic liquid crystal as host and a dichroic fluorescent dye as guest, characterized in that the dichroic fluorescent dye is a multichromophoric dye containing at least a group with the general formula Ry - X 1 - C 1, wherein Ry is a chromophore from the rylene family, C 1 is a second chromophore and X 1 is a spacer that interrupts the conjugation between Ry and C 1 and wherein the spacer X 1 is selected such that it introduces rigidity against bending or folding over an axis perpendicular to the length of the molecule.
A method for determining how to combine received signals (4a-f) from a plurality of antennas (A1-A6) in an antenna set, wherein each antenna (A1-A6) belongs to one of a plurality of evaluation sectors (S1-S3), the method being performed in a network node of a cellular communication network and comprising the steps of: determining for each evaluation sector whether it is better to perform intra-sector IRC, interference rejection combining, on received signals for all antennas of the evaluation sector than refraining from performing IRC on any of the received signals for the antennas of the evaluation sector; for each evaluation sector, when it is better to perform intra-sector IRC, forming a single antenna part for the evaluation sector comprising all antennas of the evaluation sector; for each evaluation sector, when it is better to refrain from performing IRC on any of the received signals for the antennas, forming a separate antenna part for each antenna of the evaluation sector; determining for a sector group comprising at least two evaluation sectors whether it is better to perform inter-sector IRC on all antennas of the at least two evaluation sectors or to keep the previously formed antenna parts; forming a single combined antenna part for the sector group comprising all antennas of the evaluation sectors of the sector group when it is better to perform IRC on the at least two evaluation sectors of the sector group, the single antenna part; and combining received signals using IRC for antennas of any antenna part comprising more than one antenna; and without IRC for received signals for antennas of any antenna parts comprising only one antenna. determining for each evaluation sector whether it is better to perform intra-sector IRC, interference rejection combining, on received signals for all antennas of the evaluation sector than refraining from performing IRC on any of the received signals for the antennas of the evaluation sector; for each evaluation sector, when it is better to perform intra-sector IRC, forming a single antenna part for the evaluation sector comprising all antennas of the evaluation sector; for each evaluation sector, when it is better to refrain from performing IRC on any of the received signals for the antennas, forming a separate antenna part for each antenna of the evaluation sector; determining for a sector group comprising at least two evaluation sectors whether it is better to perform inter-sector IRC on all antennas of the at least two evaluation sectors or to keep the previously formed antenna parts; forming a single combined antenna part for the sector group comprising all antennas of the evaluation sectors of the sector group when it is better to perform IRC on the at least two evaluation sectors of the sector group, the single antenna part; and combining received signals using IRC for antennas of any antenna part comprising more than one antenna; and without IRC for received signals for antennas of any antenna parts comprising only one antenna.
Use, for reducing the deposits present in the internal parts of a compression ignition engine, of a fuel composition comprising at least 85% by weight of one or more paraffinic hydrocarbon fractions consisting of one or more hydrotreated vegetable oils, said fraction(s) having a distillation range within the range from 100 to 400°C, a paraffin content greater than or equal to 90% by weight and containing at least 70% by weight of isoparaffins, with regard to the weight of said fraction.
A method of operation of a self-powered electrochemical cell with an electrochemical analyte sensor (401, 700, 800), comprising: electrooxidizing or electroreducing, by a working electrode of the self-powered electrochemical cell, a primary reactant in the presence of an enzyme disposed on the working electrode; and electroreducing or electrooxidizing, by a counter electrode of the self-powered electrochemical cell, a secondary reactant; wherein the working electrode further comprises a flux limiting membrane layer disposed proximate to the enzyme and/or wherein the electrochemical cell comprises a resistor having an R value, the resistor coupling together the working electrode and the counter electrode; and the method further comprising: spontaneously passing, by the self-powered electrochemical cell and in the absence of an external power source, a current that is linearly proportional to an analyte concentration. electrooxidizing or electroreducing, by a working electrode of the self-powered electrochemical cell, a primary reactant in the presence of an enzyme disposed on the working electrode; and electroreducing or electrooxidizing, by a counter electrode of the self-powered electrochemical cell, a secondary reactant; wherein the working electrode further comprises a flux limiting membrane layer disposed proximate to the enzyme and/or wherein the electrochemical cell comprises a resistor having an R value, the resistor coupling together the working electrode and the counter electrode; and the method further comprising: spontaneously passing, by the self-powered electrochemical cell and in the absence of an external power source, a current that is linearly proportional to an analyte concentration.
A method for suppressing crossed timeslot interference in a time-slotted CDMA system, comprising: determining, by a base station, positions of crossed timeslots according to configuration information of local cell and configuration information of co-frequency adjacent cells, and performing multi-cell channel estimation on the crossed timeslots to obtain channel estimation result; determining, by the base station, code channel configuration information of the co-frequency adjacent cells, grouping the determined code channels and determining the code channels of the co-frequency adjacent cells involved in a joint detection; and performing, by the base station, the joint detection according to the multi-cell information estimation result and the determined code channels of the base stations involved in the joint detection to obtain the detection data. determining, by a base station, positions of crossed timeslots according to configuration information of local cell and configuration information of co-frequency adjacent cells, and performing multi-cell channel estimation on the crossed timeslots to obtain channel estimation result; determining, by the base station, code channel configuration information of the co-frequency adjacent cells, grouping the determined code channels and determining the code channels of the co-frequency adjacent cells involved in a joint detection; and performing, by the base station, the joint detection according to the multi-cell information estimation result and the determined code channels of the base stations involved in the joint detection to obtain the detection data.
Football game table consisting of a case supporting a series of bars, parallel with one another and arranged perpendicularly between two lateral sides (4 and 5) thereof, sliding tubes being mounted on these bars, elements for striking a ball simulating players being arranged on said tubes, said tubes being actuated by means of handles, each of the striking elements including at the lower part thereof a receptacle forming two separate front areas (11 and 12) simulating a player's feet, so as to strike the ball with one or the other according to a first function of the receptacle, while enabling gripping and ejection of the ball according to a second function of the same receptacle, the receptacle forming the lower part of the striking element simulating the player being extended at the upper part thereof by a second receptacle simulating the player's head also enabling gripping and ejection of the ball by turning the element upside-down about the bar, the two receptacles (10, 13) being interconnected by a rolling track for transferring the ball from one to the other, either in one direction or in the other.
A Filter Bank Multicarrier, FBMC, modulation-based signal transmitting method, comprising: receiving from a receiver, by the transmitter, an index of a resource allocation mode, an index of a Data Block, DB, size and an index of a mapping order, which are determined by the receiver based on a channel estimation result; determining the resource allocation mode, the DB size and the mapping order by searching in a look-up table; based on the resource allocation mode, the DB size and the mapping order, mapping, by a transmitter, an original DB with at least one symbol to a first Resource Block, RB, preprocessing the original DB, and mapping the preprocessed original DB to a second RB; modulating, by the transmitter, data of the first RB and the second RB, by using a FBMC modulation; and, transmitting, by the transmitter, the data modulated. receiving from a receiver, by the transmitter, an index of a resource allocation mode, an index of a Data Block, DB, size and an index of a mapping order, which are determined by the receiver based on a channel estimation result; determining the resource allocation mode, the DB size and the mapping order by searching in a look-up table; based on the resource allocation mode, the DB size and the mapping order, mapping, by a transmitter, an original DB with at least one symbol to a first Resource Block, RB, preprocessing the original DB, and mapping the preprocessed original DB to a second RB; modulating, by the transmitter, data of the first RB and the second RB, by using a FBMC modulation; and, transmitting, by the transmitter, the data modulated.
A foundry method of casting monocrystalline metal parts, the method comprising at least the steps of: casting a molten alloy into a cavity of a mold through at least one casting channel in the mold; subjecting the alloy to heat treatment; and removing the mold; the method being characterized in that the heat treatment is performed after the alloy has solidified in the mold and before the end of mold removal. casting a molten alloy into a cavity of a mold through at least one casting channel in the mold; subjecting the alloy to heat treatment; and removing the mold; the method being characterized in that the heat treatment is performed after the alloy has solidified in the mold and before the end of mold removal.
A gear wheel containing the polyamide moulding compound or consisting of this polyamide moulding compound, wherein the polyamide moulding compound contains or is formed from the following components to: 35 to 100 wt.% of a mixture formed from the polyamides and; wherein is 50 to 100 wt.% of at least one polyamide containing at least 50 mole % PA X.16 units, wherein X stands for an acyclic, aliphatic diamine with 4 to 12 carbon atoms and 16 for 1,16-hexadecanedioic acid; and is 0 to 50 wt.% of at least one aliphatic or partially aromatic polyamide which [is] different from component; wherein the total of and yields 100 wt.%; 0 to 60 wt.% of at least one filler; 0 to 5 wt.% of at least one additive; wherein the weight contents of components to add up to 100 wt.%. 35 to 100 wt.% of a mixture formed from the polyamides and; wherein is 50 to 100 wt.% of at least one polyamide containing at least 50 mole % PA X.16 units, wherein X stands for an acyclic, aliphatic diamine with 4 to 12 carbon atoms and 16 for 1,16-hexadecanedioic acid; and is 0 to 50 wt.% of at least one aliphatic or partially aromatic polyamide which [is] different from component; wherein the total of and yields 100 wt.%; is 50 to 100 wt.% of at least one polyamide containing at least 50 mole % PA X.16 units, wherein X stands for an acyclic, aliphatic diamine with 4 to 12 carbon atoms and 16 for 1,16-hexadecanedioic acid; and is 0 to 50 wt.% of at least one aliphatic or partially aromatic polyamide which [is] different from component; 0 to 60 wt.% of at least one filler; 0 to 5 wt.% of at least one additive;
A copolymer comprising: (a) first monomeric units derived from monomers of Formula CH 2 =CR 1 - -X-R 2 -[-Q-R 3 -] n -Y or salts thereof, wherein: R 1 is hydrogen or methyl; X is oxy or -NH-; R 2 is an alkylene optionally including catenary oxygen; R 3 is an alkylene; Q is - O-, -NR 4 - -NR 4 -, or - -NR 4 -; R 4 is hydrogen or alkyl; n is equal to 1; and Y is phosphonic acid, phosphonate, phosphoric acid, or phosphate; and (b) second monomeric units derived from monomers of Formula CH 2 =CR 1 - -X-R 2 -[-Q-R 3 -] n -[NR 5 R 6] +- R 7 -Z - wherein: R 1 is hydrogen or methyl; X is oxy or -NH-; R 2 is alkylene optionally including catenary oxygen; R 3 is alkylene; Q is - O-, -NR 4 - -NR 4 -, or - -NR 4 -; R 4 is hydrogen or alkyl; n is equal to 0 or 1; R 5 and R 6 are each independently an alkyl, aryl, or a combination thereof, or R 5 and R 6 both combine with the nitrogen to which they are both attached to form a heterocyclic ring having 3 to 7 ring members; R 7 is alkylene; and Z - is carboxylate or sulfonate. (a) first monomeric units derived from monomers of Formula CH 2 =CR 1 - -X-R 2 -[-Q-R 3 -] n -Y or salts thereof, wherein: R 1 is hydrogen or methyl; X is oxy or -NH-; R 2 is an alkylene optionally including catenary oxygen; R 3 is an alkylene; Q is - O-, -NR 4 - -NR 4 -, or - -NR 4 -; R 4 is hydrogen or alkyl; n is equal to 1; and Y is phosphonic acid, phosphonate, phosphoric acid, or phosphate; and R 1 is hydrogen or methyl; X is oxy or -NH-; R 2 is an alkylene optionally including catenary oxygen; R 3 is an alkylene; Q is - O-, -NR 4 - -NR 4 -, or - -NR 4 -; R 4 is hydrogen or alkyl; n is equal to 1; and Y is phosphonic acid, phosphonate, phosphoric acid, or phosphate; and (b) second monomeric units derived from monomers of Formula CH 2 =CR 1 - -X-R 2 -[-Q-R 3 -] n -[NR 5 R 6] +- R 7 -Z - wherein: R 1 is hydrogen or methyl; X is oxy or -NH-; R 2 is alkylene optionally including catenary oxygen; R 3 is alkylene; Q is - O-, -NR 4 - -NR 4 -, or - -NR 4 -; R 4 is hydrogen or alkyl; n is equal to 0 or 1; R 5 and R 6 are each independently an alkyl, aryl, or a combination thereof, or R 5 and R 6 both combine with the nitrogen to which they are both attached to form a heterocyclic ring having 3 to 7 ring members; R 7 is alkylene; and Z - is carboxylate or sulfonate. R 1 is hydrogen or methyl; X is oxy or -NH-; R 2 is alkylene optionally including catenary oxygen; R 3 is alkylene; Q is - O-, -NR 4 - -NR 4 -, or - -NR 4 -; R 4 is hydrogen or alkyl; n is equal to 0 or 1; R 5 and R 6 are each independently an alkyl, aryl, or a combination thereof, or R 5 and R 6 both combine with the nitrogen to which they are both attached to form a heterocyclic ring having 3 to 7 ring members; R 7 is alkylene; and Z - is carboxylate or sulfonate.
Propulsion engine assembly of an aircraft and of a pylon attachment system for mounting the engine on the structure of an aircraft, in particular to the wings thereof, the attachment means comprising a first attachment means, fixed to the pylon and a second attachment means, the second attachment means being capable of being fixed to the structure of the aircraft, a connection means connecting the first and second attachment means, the connection means being arranged to enable the movement of the first attachment means with respect to the second attachment means between a first and a second positions when the thrust exerted by the engine exceeds a determined threshold, characterised by the fact that the connection means comprises two rigid connecting rods (36, 37), of which one upstream connecting rod and one downstream connecting rod, articulated on the attachment means (32, 33), so as to form a deformable trapezoidal structure, with two vertices (32a, 32b) of the trapeze which are fixed with respect to the first attachment means and which are arranged longitudinally with respect to the axis of the engine, and with two other vertices (33a, 33b) of the trapeze that are fixed with respect to the second attachment means and which are arranged longitudinally with respect to the axis of the engine, and by the fact that the downstream connecting rod is longer than the upstream connecting rod, such that the engine is inclined downwards when it moves forward.
A masonry replica cladding system comprising: a plurality of substantially rectangular flat panels, each panel having: first and second major opposing faces (7, 8); first and second major opposing edges (11, 12); a pair of opposing ends (9, 10); each flat panel further having a first recess in its first major face adjacent the first major edge configured in use to mimic a recessed mortar joint wherein, when used to form at least a portion of a wall cladding, the first major edge of a first flat panel is positioned adjacent the second major edge of an adjacent second flat panel, and the opposing ends (9, 10) of each panel are substantially aligned with the corresponding opposing ends of adjacent panels to form respective side edges of a substantially rectangular array of flat panels; characterised by at least one longitudinal end trim element (6, 6a, 6b, 6c, 6d) for providing a weather-proof joint for at least one side edge of each rectangular array formed by the adjacent panel ends (9, 10), wherein the longitudinal trim element comprises a thin strip of sheet material having a raised central portion that extends between aligned ends (9, 10) of the array of adjacent rectangular panels to replicate the base of a recess that corresponds to the depth of the first recess formed in the first major face of each panel. first and second major opposing faces (7, 8); first and second major opposing edges (11, 12); a pair of opposing ends (9, 10); each flat panel further having a first recess in its first major face adjacent the first major edge configured in use to mimic a recessed mortar joint wherein, when used to form at least a portion of a wall cladding, the first major edge of a first flat panel is positioned adjacent the second major edge of an adjacent second flat panel, and the opposing ends (9, 10) of each panel are substantially aligned with the corresponding opposing ends of adjacent panels to form respective side edges of a substantially rectangular array of flat panels; characterised by at least one longitudinal end trim element (6, 6a, 6b, 6c, 6d) for providing a weather-proof joint for at least one side edge of each rectangular array formed by the adjacent panel ends (9, 10), wherein the longitudinal trim element comprises a thin strip of sheet material having a raised central portion that extends between aligned ends (9, 10) of the array of adjacent rectangular panels to replicate the base of a recess that corresponds to the depth of the first recess formed in the first major face of each panel.