mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting at least one of a unicast and multicast signal, comprising: receiving input power distributed between two weakly correlated signals, a first of the two weakly correlated signals being received on a first input and a second of the two weakly correlated signals being received on a second input; dividing the two weakly correlated signals, wherein a first divided signal comprises one half the first signal and one half the second signal and a second divided signal comprises one half the first signal and one half the second signal; amplifying the first divided signal by a first amplifier; amplifying the second divided signal by a second amplifier; recombining the amplified, divided signals, wherein a recombined, amplified first signal is provided at a first output and a recombined, amplified second signal is provided at a second output; and radiating the recombined signals by first and second antennas coupled to the first and second outputs, respectively; wherein the input power distributed to the first weakly correlated signal is a.P in and the input power distributed to the second weakly correlated signal is (1-a).P in; wherein in unicast mode a is greater than 0 and less than 1; wherein in multicast mode a is equal to 1; and wherein P in is the total input power. receiving input power distributed between two weakly correlated signals, a first of the two weakly correlated signals being received on a first input and a second of the two weakly correlated signals being received on a second input; dividing the two weakly correlated signals, wherein a first divided signal comprises one half the first signal and one half the second signal and a second divided signal comprises one half the first signal and one half the second signal; amplifying the first divided signal by a first amplifier; amplifying the second divided signal by a second amplifier; recombining the amplified, divided signals, wherein a recombined, amplified first signal is provided at a first output and a recombined, amplified second signal is provided at a second output; and radiating the recombined signals by first and second antennas coupled to the first and second outputs, respectively; wherein the input power distributed to the first weakly correlated signal is a.P in and the input power distributed to the second weakly correlated signal is (1-a).P in; wherein in unicast mode a is greater than 0 and less than 1; wherein in multicast mode a is equal to 1; and wherein P in is the total input power.
A pneumatic tire, comprising a foam rubber layer in a sidewall, the foam rubber layer having an expansion ratio of 10 to 100% as defined by the following equation 1: Expansion ratio % = Density of solid phase part of vulcanized rubber Density of entire foam rubber − 1 × 100 wherein the foam rubber layer contains natural rubber and polybutadiene rubber, the combined content of natural rubber and polybutadiene rubber, based on 100 parts by mass of the rubber component, is 65 parts by mass or more, the foam rubber layer is formed using a thermally decomposable foaming agent, and the amount of the thermally decomposable foaming agent is 10 parts by mass or more per 100 parts by mass of the rubber component.
A system for measuring a concentration of an analyte of interest in a biological fluid, comprising: a test meter; a first test strip, comprising: a first measurement electrode connectable to said test meter, a first trace loop (W-WS) with a first associated resistance, said first trace loop connectable to said test meter, and a second trace loop (C-CS) with a second associated resistance, said second trace loop connectable to said test meter; and characterized in that said test meter is adapted to: distinguish between at least two substantially non-zero resistance values, receive said first test strip, connect to said first measurement electrode, said first trace loop (W-WS), and said second trace loop (C-CS), and obtain a first resistance ratio by comparing said first and second associated resistances wherein the system further comprises a first measurement electrode trace conductively connected to said first measurement electrode, wherein said first trace loop (W-WS) comprises at least a portion of said first measurement electrode trace. a test meter; a first test strip, comprising: a first measurement electrode connectable to said test meter, a first trace loop (W-WS) with a first associated resistance, said first trace loop connectable to said test meter, and a second trace loop (C-CS) with a second associated resistance, said second trace loop connectable to said test meter; and a first measurement electrode connectable to said test meter, a first trace loop (W-WS) with a first associated resistance, said first trace loop connectable to said test meter, and a second trace loop (C-CS) with a second associated resistance, said second trace loop connectable to said test meter; and characterized in that said test meter is adapted to: distinguish between at least two substantially non-zero resistance values, receive said first test strip, connect to said first measurement electrode, said first trace loop (W-WS), and said second trace loop (C-CS), and obtain a first resistance ratio by comparing said first and second associated resistances distinguish between at least two substantially non-zero resistance values, receive said first test strip, connect to said first measurement electrode, said first trace loop (W-WS), and said second trace loop (C-CS), and obtain a first resistance ratio by comparing said first and second associated resistances wherein the system further comprises a first measurement electrode trace conductively connected to said first measurement electrode, wherein said first trace loop (W-WS) comprises at least a portion of said first measurement electrode trace.
A sabot (20, 30) having a push and a pull function, characterized in that the sabot (20, 30) comprises separate sabot parts (5, 6, 14, 14', 15, 15'), at least one sabot part (5, 14, 14') being designed such that it assumes the pull function, and at least one other sabot part (6, 15, 15') being designed such that it assumes the push function.
A tensioner (200, 300) for an endless drive member, comprising: a shaft and base that are mountable to be stationary relative to an engine; a tensioner arm that is pivotable relative to the shaft about a tensioner arm axis; a pulley (220, 320) on the tensioner arm rotatable about a pulley axis that is offset from the tensioner arm axis, wherein the pulley (220, 320) is engageable with an endless drive member; a tensioner spring that is positioned to urge the tensioner arm towards a free arm position; and characterized in that the tensioner further comprises a damping element that engages the tensioner arm and that is engaged by a plurality of axially spaced segments of the tensioner spring, and a bushing (221, 321b) that is positioned radially and/or axially between the pulley (220, 320) and the tensioner arm to support the pulley radially during relative rotation between the pulley and the tensioner arm, and an oil transport structure (290, 292; 390, 391) configured to transport oil from outside of the tensioner (200, 300) to the bushing (221, 321b) to facilitate rotation of the pulley relative to the tensioner arm. a shaft and base that are mountable to be stationary relative to an engine; a tensioner arm that is pivotable relative to the shaft about a tensioner arm axis; a pulley (220, 320) on the tensioner arm rotatable about a pulley axis that is offset from the tensioner arm axis, wherein the pulley (220, 320) is engageable with an endless drive member; a tensioner spring that is positioned to urge the tensioner arm towards a free arm position; and
A shock absorber comprising: ▪ a cylinder having a first chamber and a second chamber, at least one of said first chamber and said second chamber including a fluid; ▪ a piston configured for reciprocal movement within said cylinder and defining at least one through-hole for enabling the fluid to move between the first and second chambers; ▪ a floating disc and a floating retainer each movably connected to said piston, said floating disc and said floating retainer defining a space between said floating disc and said floating retainer, said space having a cross-sectional area; and ▪ a seal element seated in said space and having a cross-sectional area, characterized in that: ▪ said cross-sectional area of said seal element is equal to said cross-sectional area of said space, ▪ said seal element has at least a first and a second surface, and ▪ the entirety of said second surface engages and forms a seal with an inner wall of said cylinder during the reciprocal movement of said piston. ▪ a cylinder having a first chamber and a second chamber, at least one of said first chamber and said second chamber including a fluid; ▪ a piston configured for reciprocal movement within said cylinder and defining at least one through-hole for enabling the fluid to move between the first and second chambers; ▪ a floating disc and a floating retainer each movably connected to said piston, said floating disc and said floating retainer defining a space between said floating disc and said floating retainer, said space having a cross-sectional area; and ▪ a seal element seated in said space and having a cross-sectional area, ▪ said cross-sectional area of said seal element is equal to said cross-sectional area of said space, ▪ said seal element has at least a first and a second surface, and ▪ the entirety of said second surface engages and forms a seal with an inner wall of said cylinder during the reciprocal movement of said piston.
A relay device comprising: a receiving unit for receiving information in data frames from a plurality of wireless communication devices; a storage unit for accumulating the information received from the plurality of wireless communication devices by the receiving unit; an information processing unit for aggregating the information accumulated in the storage unit; and a transmitting unit for transmitting the information aggregated by the information processing unit to a base station, wherein the relay device is adapted to determine whether or not one of the plurality of the wireless communication devices from which the information is received is a MTC terminal, wherein the storage unit is adapted to accumulate the information received from the MTC terminal, and the information processing unit is adapted to aggregate the information received from the MTC terminal, and the transmitting unit is adapted to transmit the information received from the wireless communication device which is the MTC terminal to the base station in a state of being aggregated by the information processing unit, wherein the information processing unit is adapted to determine from each data frame received from said MTC terminal information related to an allowable delay time and wherein the information processing unit is further adapted to determine at which time each of the allowable delay times of the information accumulated in the storage unit elapses and to aggregate the information accumulated in the storage unit before an earliest time among the allowable delay times elapses. a receiving unit for receiving information in data frames from a plurality of wireless communication devices; a storage unit for accumulating the information received from the plurality of wireless communication devices by the receiving unit; an information processing unit for aggregating the information accumulated in the storage unit; and a transmitting unit for transmitting the information aggregated by the information processing unit to a base station, wherein the relay device is adapted to determine whether or not one of the plurality of the wireless communication devices from which the information is received is a MTC terminal, wherein the storage unit is adapted to accumulate the information received from the MTC terminal, and the information processing unit is adapted to aggregate the information received from the MTC terminal, and the transmitting unit is adapted to transmit the information received from the wireless communication device which is the MTC terminal to the base station in a state of being aggregated by the information processing unit, wherein the information processing unit is adapted to determine from each data frame received from said MTC terminal information related to an allowable delay time and wherein the information processing unit is further adapted to determine at which time each of the allowable delay times of the information accumulated in the storage unit elapses and to aggregate the information accumulated in the storage unit before an earliest time among the allowable delay times elapses.
A computer-implemented method for determining a gateway beacon transmission scheme in a low power wide area network comprising a plurality of gateway devices and a plurality of end devices, wherein each of the end devices is configured for wirelessly receiving a beacon signal from one or more of the gateway devices in the network for synchronizing time windows of the end devices for data reception from the gateway devices, the method comprising the steps of: a) selecting at least one gateway device from the plurality of gateway devices in the network as a beacon transmitting gateway device; characterized by further comprising the steps of: b) determining one or more neighbor gateway devices within a distance from the at least one selected beacon transmitting gateway device; c) deactivating beacon transmission for the determined neighbor gateway devices; d) executing a network performance function for a network with the at least one selected beacon transmitting gateway device and the neighbor devices for which the beacon transmission is deactivated to obtain a first network performance result; e) selecting at least one gateway device that is different from the at least one beacon transmitting gateway device selected in step a); f) executing steps b) - d) with the at least one beacon transmitting gateway device selected in step e) to obtain a second network performance result; g) determining a gateway beacon transmission scheme of beacon transmitting gateway devices based on a comparison of at least the first network performance result and the second network performance result. a) selecting at least one gateway device from the plurality of gateway devices in the network as a beacon transmitting gateway device; b) determining one or more neighbor gateway devices within a distance from the at least one selected beacon transmitting gateway device; c) deactivating beacon transmission for the determined neighbor gateway devices; d) executing a network performance function for a network with the at least one selected beacon transmitting gateway device and the neighbor devices for which the beacon transmission is deactivated to obtain a first network performance result; e) selecting at least one gateway device that is different from the at least one beacon transmitting gateway device selected in step a); f) executing steps b) - d) with the at least one beacon transmitting gateway device selected in step e) to obtain a second network performance result; g) determining a gateway beacon transmission scheme of beacon transmitting gateway devices based on a comparison of at least the first network performance result and the second network performance result.
A non-aqueous electrolyte solution for use in an electrochemical cell, comprising: at least one organic solvent; and at least one electrolytically active, soluble, inorganic Magnesium (Mg) salt complex represented by the formula Mg n+1 X (2*n) Z 2 in which n is in the range from one-quarter to four, X is a halide, and Z is a selected one of N(SO 2 F) 2 -1, N(C 2 F 5 SO 2) 2 -1, N 2 -1, C 3 -1, B 4 -1, N(CF 3 SO 2)(CF 3 CO) -1, BF 4 -1, PF 6 -1, CF 3 SO 3 -1, B(C 2 O 4) 2 -1, ClO 4 -1, AsF 6 -1, SbF 6 -1, (C 4 F 9 SO 3) -1, C(CF 3 SO 2) 3 -1, CF 3 CO 2 -1, C 3 F 7 CO 2 -1, SCN -1, and CF 3 SO 2 -1, and mixtures thereof; or at least one electrolytically active, soluble, inorganic Magnesium (Mg) salt complex represented by the formula Mg n+1 X (2*n) Z 2 in which n is in the range from one-quarter to four, X is a chlorine, and Z is N(CF 3 SO 2) 2 -1 at least one organic solvent; and at least one electrolytically active, soluble, inorganic Magnesium (Mg) salt complex represented by the formula Mg n+1 X (2*n) Z 2 in which n is in the range from one-quarter to four, X is a halide, and Z is a selected one of N(SO 2 F) 2 -1, N(C 2 F 5 SO 2) 2 -1, N 2 -1, C 3 -1, B 4 -1, N(CF 3 SO 2)(CF 3 CO) -1, BF 4 -1, PF 6 -1, CF 3 SO 3 -1, B(C 2 O 4) 2 -1, ClO 4 -1, AsF 6 -1, SbF 6 -1, (C 4 F 9 SO 3) -1, C(CF 3 SO 2) 3 -1, CF 3 CO 2 -1, C 3 F 7 CO 2 -1, SCN -1, and CF 3 SO 2 -1, and mixtures thereof; or at least one electrolytically active, soluble, inorganic Magnesium (Mg) salt complex represented by the formula Mg n+1 X (2*n) Z 2 in which n is in the range from one-quarter to four, X is a chlorine, and Z is N(CF 3 SO 2) 2 -1
A method for reconstructing a current block of residual data, using a video decoder, from an encoded block of residual data in a bitstream of encoded video, the method comprising: determining whether a mode used in generating the encoded block is an intra-prediction mode in a predetermined class; entropy decoding the encoded block to obtain an entropy-decoded block; and responsive to determining that the mode is in the predetermined class, transposing at least a portion of the entropy-decoded block to obtain a transposed block, and not performing said transposing if the mode is not in the predetermined class, wherein the predetermined class comprises angular intra-prediction modes that correspond to angles of displacement from a current block to be coded to nearby pixels used in the intra-prediction of 0 degrees, -15 degrees, +15 degrees, -7.5 degrees, -22.5 degrees, +202.5 degrees, +7.5 degrees, and +22.5 degrees, respectively, measured with respect to the positive horizontal axis in counterclockwise direction. determining whether a mode used in generating the encoded block is an intra-prediction mode in a predetermined class; entropy decoding the encoded block to obtain an entropy-decoded block; and responsive to determining that the mode is in the predetermined class, transposing at least a portion of the entropy-decoded block to obtain a transposed block, and not performing said transposing if the mode is not in the predetermined class, wherein the predetermined class comprises angular intra-prediction modes that correspond to angles of displacement from a current block to be coded to nearby pixels used in the intra-prediction of 0 degrees, -15 degrees, +15 degrees, -7.5 degrees, -22.5 degrees, +202.5 degrees, +7.5 degrees, and +22.5 degrees, respectively, measured with respect to the positive horizontal axis in counterclockwise direction.
Tank filling system with a protective cap (2, 92, 102, 112) and a pour-out connection, wherein the protective cap (2, 92, 102, 112) has an end position, in which it at least partially covers the pour-out connection, and wherein the protective cap (2, 92, 102, 112) has an opened position, in which it can be removed from the pour-out connection into a removed position, characterised in that the pour-out connection comprises at least one valve, the valve having a venting position and a closed valve position, wherein the valve opens at least one passage for a fluid in the venting position, wherein the valve closes the passage in the closed valve position, wherein the valve is in the closed valve position in the end position of the protective cap (2, 92, 102, 112), and wherein the valve is at least temporarily forced into the venting position when the protective cap is moved from the end position into the opened position.
A stackable cutlery element with a handle with a wall and a functional element shaped onto the handle, wherein one end rib and two longitudinal ribs (6, 6') are arranged on a first and second side (4a, 5b) of the handle so that they project from the wall, and that the end rib and the longitudinal ribs (6, 6') are designed so that when a plurality of cutlery elements (1, 1') are stacked, the end rib and the longitudinal ribs (6, 6') of the first side of a cutlery element engage positively in the end rib and the longitudinal ribs (6, 6') of the second side of a further cutlery element characterised in that on the first side the end rib and the longitudinal ribs (6, 6') have a first bevel on an outer edge facing away from the wall; and in that on the second side the end rib and the longitudinal ribs (6, 6') have a second bevel on an inner edge facing the wall, its angle of inclination to the wall being smaller than or greater than the angle of inclination of the first bevel to the wall.
Lighting device (1, 20), comprising: at least one laser source (4, 21) for generating laser radiation, wherein the laser source is optically coupled to an optical element (7, 8, 9, 25, 26, 27, 42, 47, 55, 62, 74, 82, 92, 100, 110, 120, 130) comprising at least one luminescent material (62, 74, 102, 112, 122, 134) suitable for emitting luminescent radiation (12, 66, 76,87, 97, 113, 135) upon excitation by the laser radiation (10, 23, 41, 46, 50, 61, 71, 84, 94, 115, 125, 133), characterized in that the optical element is provided with at least one reflector (65, 75, 83, 93, 101, 111, 121, 132) for directing the emitted luminescent radiation from the luminescent material through an emission window (87, 97, 103, 114, 124, 134) of the optical element, and wherein the device is provided with multiple optical elements (7, 8, 9, 25, 26, 27, 42, 47, 55, 62, 74, 82, 92, 100, 110, 120, 13 0) comprising different luminescent components for the emission of luminescent radiance of different wave lengths, and said laser source is optically coupled to the optical element through an optical switch arranged to switch the laser radiation between at least a first optical element comprising a luminescent component and a second optical element comprising a luminescent component different from the one of said first optical element. at least one laser source (4, 21) for generating laser radiation, wherein the laser source is optically coupled to an optical element (7, 8, 9, 25, 26, 27, 42, 47, 55, 62, 74, 82, 92, 100, 110, 120, 130) comprising at least one luminescent material (62, 74, 102, 112, 122, 134) suitable for emitting luminescent radiation (12, 66, 76,87, 97, 113, 135) upon excitation by the laser radiation (10, 23, 41, 46, 50, 61, 71, 84, 94, 115, 125, 133), characterized in that the optical element is provided with at least one reflector (65, 75, 83, 93, 101, 111, 121, 132) for directing the emitted luminescent radiation from the luminescent material through an emission window (87, 97, 103, 114, 124, 134) of the optical element, and wherein the device is provided with multiple optical elements (7, 8, 9, 25, 26, 27, 42, 47, 55, 62, 74, 82, 92, 100, 110, 120, 13 0) comprising different luminescent components for the emission of luminescent radiance of different wave lengths, and said laser source is optically coupled to the optical element through an optical switch arranged to switch the laser radiation between at least a first optical element comprising a luminescent component and a second optical element comprising a luminescent component different from the one of said first optical element.