mhurhangee/ep-ind-claims huggingface dataset:
A vehicle controller, comprising: a drive source of a vehicle; a brake device that applies a brake force to the vehicle; a brake assist device that assists a braking operation of a driver by a negative pressure generated by drive of the drive source; automatic stop means for enabling automatic stop of the drive source according to a running state of the vehicle; and automatic start means for automatically starting the drive source when a negative pressure of the brake assist device decreases below a negative pressure determination value in the automatic stop state of the drive device; characterized by condition changing means for increasing the negative pressure determination value according to kinetic energy of the vehicle running in the automatic stop state of the drive source, wherein the condition changing means calculates the kinetic energy on the basis of the vehicle weight and speed, wherein the condition changing means increases the negative pressure determination value on the basis of an increment of the current kinetic energy of the vehicle with respect to the kinetic energy of the vehicle at the time the drive source is automatically stopped. a drive source of a vehicle; a brake device that applies a brake force to the vehicle; a brake assist device that assists a braking operation of a driver by a negative pressure generated by drive of the drive source; automatic stop means for enabling automatic stop of the drive source according to a running state of the vehicle; and automatic start means for automatically starting the drive source when a negative pressure of the brake assist device decreases below a negative pressure determination value in the automatic stop state of the drive device; characterized by condition changing means for increasing the negative pressure determination value according to kinetic energy of the vehicle running in the automatic stop state of the drive source, wherein the condition changing means calculates the kinetic energy on the basis of the vehicle weight and speed, wherein the condition changing means increases the negative pressure determination value on the basis of an increment of the current kinetic energy of the vehicle with respect to the kinetic energy of the vehicle at the time the drive source is automatically stopped.
An apparatus comprising a plurality of substantially parallel conductive channels separated from one another by a quantum dot material, source and drain electrodes configured to enable a flow of electrical current through the conductive channels, and a substrate configured to support the conductive channels, quantum dot material and source and drain electrodes, wherein either the source electrode(s) or drain electrode(s) are formed on the supporting substrate, wherein the conductive channels extend substantially perpendicular to the surface of the supporting substrate, wherein the quantum dot material is configured to generate an electron-hole pair on exposure to incident electromagnetic radiation, and wherein the conductive channels and quantum dot material are configured such that either the electron or hole of the electron-hole pair is transferred to one of the conductive channels leaving the remaining charge carrier in the quantum dot material, the remaining charge carrier exhibiting an electric field which causes a change in electrical current passing through at least one of the conductive channels, the change in electrical current indicative of one or more of the presence and magnitude of the incident electromagnetic radiation. wherein the quantum dot material is configured to generate an electron-hole pair on exposure to incident electromagnetic radiation, and wherein the conductive channels and quantum dot material are configured such that either the electron or hole of the electron-hole pair is transferred to one of the conductive channels leaving the remaining charge carrier in the quantum dot material, the remaining charge carrier exhibiting an electric field which causes a change in electrical current passing through at least one of the conductive channels, the change in electrical current indicative of one or more of the presence and magnitude of the incident electromagnetic radiation.
A spring-loaded inner conductor contact element (17; 17') having at least one inner conductor (2; 2 1, 2 2) and an elastic element (7; 7'), that surrounds the at least one inner conductor (2; 2 1, 2 2), wherein the axial extension of the at least one inner conductor (2; 2 1, 2 2) is variable, wherein the at least one inner conductor (2; 2 1, 2 2) is in each case metallic, wherein the elastic element (7; 7') is made from an electrically insulating material and is fixed to each inner conductor (2; 2 1, 2 2), wherein the spring-loaded inner conductor contact element (17; 17') is configured in such a manner that it can be coaxially arranged in an outer conductor contact element, wherein due to the elasticity of the elastic element (7; 7') and the fixing of the elastic element (7; 7') to the at least one inner conductor (2; 2 1, 2 2) in a compressed state of the elastic element (7; 7') a spring force of the elastic element (7; 7') can be transferred to the at least one inner conductor (2; 2 1, 2 2), wherein the electrically insulating material of the elastic elements (7; 7') is an elastomer, wherein the at least one inner conductor (2; 2 1, 2 2) comprises in each case a solid first inner conductor part (2 1; 2 1 1, 2 2 1) contactable with a first component and a solid second inner conductor part (2 2; 2 1 2, 2 2 2) contactable with a second component, wherein in each case the second inner conductor part (2 2; 2 1 2, 2 2 2) electrically contacts the first inner conductor (2 1; 2 1 1, 2 2 1) and is movable relative to the first inner conductor part (2 1; 2 1 1, 2 2 1), wherein the elastic element (7; 7') is fixed at least to each second inner conductor part (2 2; 2 1 2, 2 2 2), characterized in that in a central region between two end regions (11 1, 11 2), which in each case are adjacent to an axial end of the elastic element (7; 7'), the rigidity of the elastic element (7; 7') is reduced compared to the rigidity in the two end regions (11 1, 11 2).
A method for coding of video pictures, wherein each of the video pictures is partitioned into LCUs (largest coding units) and each LCU is partitioned by quadtree partitioning into smaller CUs (coding units) and results in one or more leaf CUs, each leaf CU is subject to further split into prediction unit for prediction, the method comprising: receiving a current leaf CU; determining a QP (Quantization Parameter) minimum CU size, wherein the QP minimum CU size is specified so that QP information is only transmitted for leaf CUs larger than or equal to the QP minimum CU size, and the QP minimum CU size is specified at a sequence header, picture header or slice header; determining the leaf CU size; if leaf CU size of the current leaf CU is larger than or equal to the QP minimum CU size and if said current leaf CU has at least one nonzero quantized transform coefficient, transmitting QP information associated with the current leaf CU in a bitstream; if the leaf CU size of the current leaf CU is smaller than the QP minimum CU size and multiple leaf CUs including the current leaf CU have a parent CU of size equal to the QP minimum CU, transmitting QP information for the multiple leaf CUs to share when these leaf CUs have at least one nonzero quantized transform coefficient; and incorporating the QP information for the current leaf CU regardless of the size of the current leaf CU if the current leaf CU is the first one of coding units in a slice when non LCU aligned slices are used. receiving a current leaf CU; determining a QP (Quantization Parameter) minimum CU size, wherein the QP minimum CU size is specified so that QP information is only transmitted for leaf CUs larger than or equal to the QP minimum CU size, and the QP minimum CU size is specified at a sequence header, picture header or slice header; determining the leaf CU size; if leaf CU size of the current leaf CU is larger than or equal to the QP minimum CU size and if said current leaf CU has at least one nonzero quantized transform coefficient, transmitting QP information associated with the current leaf CU in a bitstream; if the leaf CU size of the current leaf CU is smaller than the QP minimum CU size and multiple leaf CUs including the current leaf CU have a parent CU of size equal to the QP minimum CU, transmitting QP information for the multiple leaf CUs to share when these leaf CUs have at least one nonzero quantized transform coefficient; and incorporating the QP information for the current leaf CU regardless of the size of the current leaf CU if the current leaf CU is the first one of coding units in a slice when non LCU aligned slices are used.
A household type refrigerator with an adsorption cycle system and a vapor compression cycle system, wherein said adsorption cycle system is configured to work completely independent from the vapor compression cycle system and is added to the system in addition to the vapor compression cycle, said vapor compression cycle system comprising: a compressor to compress the refrigerant fluid to condenser pressure, a condenser to release the heat out during cooling cycle, an evaporator to provide the cooling effect, a throttle device to decrease the pressure of the refrigerant fluid to the pressure of the evaporator, and said adsorption cycle system being a closed loop comprising: at least one adsorbent bed filled with adsorbents, at least one condenser which releases the heat of cycle out, at least an evaporator providing the cooling effect, and at least one throttle device which decreases the pressure of the refrigerant fluid to the pressure of the evaporator, the refrigerator being characterized in that the throttle device of the vapor compression system is a capillary tube, the at least one throttle device of the adsorption cycle system is an expansion valve, and the absorbent bed is connected and configured to adsorb the heat of the condenser of the vapor compression cycle system and to use it in desorption. a compressor to compress the refrigerant fluid to condenser pressure, a condenser to release the heat out during cooling cycle, an evaporator to provide the cooling effect, a throttle device to decrease the pressure of the refrigerant fluid to the pressure of the evaporator, and said adsorption cycle system being a closed loop comprising: at least one adsorbent bed filled with adsorbents, at least one condenser which releases the heat of cycle out, at least an evaporator providing the cooling effect, and at least one throttle device which decreases the pressure of the refrigerant fluid to the pressure of the evaporator, the refrigerator being characterized in that the throttle device of the vapor compression system is a capillary tube, the at least one throttle device of the adsorption cycle system is an expansion valve, and the absorbent bed is connected and configured to adsorb the heat of the condenser of the vapor compression cycle system and to use it in desorption. at least one adsorbent bed filled with adsorbents, at least one condenser which releases the heat of cycle out, at least an evaporator providing the cooling effect, and at least one throttle device which decreases the pressure of the refrigerant fluid to the pressure of the evaporator, the refrigerator being characterized in that the throttle device of the vapor compression system is a capillary tube, the at least one throttle device of the adsorption cycle system is an expansion valve, and the absorbent bed is connected and configured to adsorb the heat of the condenser of the vapor compression cycle system and to use it in desorption.
A self-raking fence panel, comprising a plurality of pales and at least two rails; at least one of the rails comprising an elongate member having a central wall, two integral, opposed side walls extending from the central wall, and at least one return wall (34; 134; 150) integral with a respective side wall, the return wall being arranged between the side walls and extending towards the central wall; the central wall having a plurality of apertures therein for receiving the pales; each pale having at least one projection (22; 143') extending laterally therefrom; the return wall having a plurality of recesses (42; 71; 82; 136; 151), at least one recess being arranged adjacent each respective aperture, each recess being adapted to receive a respective projection of a respective one of the pales such that the pale is pivotably adjustable about the said projection with respect to the rail; characterised in that a ramped surface (40; 135; 152) is provided adjacent each recess, the ramped surface being arranged to engage an axial end of the projection so as to assist the projection to enter the recess during assembly; at least one of the at least one return wall (34; 134; 150) and the at least one projection (22; 143') being resiliently biased to return from a deformed position to a rest position and resiliently moveable from the rest position to the deformed position by progressive engagement of the axial end of the projection with the respective ramped surface during assembly, the at least one rail being configured to accommodate entry of the projection (22; 143') into the recess (42; 71; 82; 136; 151) in the deformed position and to prevent removal of the projection from the recess in the rest position.
Membrane module which comprises a housing which for forming a container interior space by means of finisher discs at two end sides is closed in a pressure-tight manner, and the finisher discs comprise at least one feed inlet, at least one retentate outlet, and at least one permeate outlet, wherein at least one membrane pocket stack which has a plurality of membrane pockets which are lined up beside one another and are mutually separated by seals and which are push-fitted onto a permeate tube is disposed in the container interior space, wherein the permeate tube protrudes beyond the at least one permeate outlet of the finisher discs, characterized in that the permeate tube and the finisher discs by way of a key-and-groove connection are aligned in an alternating manner on the permeate tube and the permeate outlet of the finisher discs.
A method for positioning a planar material onto a supporting base in the automotive field, in particular a planar decorative material, which has a visible surface (surface A) and a reverse surface (surface B) facing away from the visible surface, said surface B of said planar material having at least one locally delimited modification inserted therein or applied thereon, characterised in that the location of the modification present on said surface B is directly detected by means of a capacitive or inductive detection device or in that the location of a marking present on the surface B and correlating to the modification is detected by means of a capacitive or inductive detection device, and in that the detected modification or marking present in the planar decorative material is subsequently positioned with respect to the supporting base.
A method of transmitting a discovery signal related to device-to-device, D2D, communication by a user equipment, UE, in a wireless communication system, the method comprising: mapping a codeword related to the discovery signal to at least two physical resource block, PRB, pairs including a first PRB pair and a second PRB pair on a time axis; and transmitting the mapped codeword related to the discovery signal, wherein the first PRB pair includes a resource region for transmitting a specific signal used for automatic gain control, AGC, of a counterpart UE receiving the mapped codeword, and wherein the second PRB pair includes a resource region for transmitting the specific signal for AGC when a subframe subsequent to a subframe including the first PRB pair is for downlink transmission, and the second PRB pair does not include a resource region for transmitting the specific signal for AGC when the subframe subsequent to the subframe including the first PRB pair is for uplink transmission. mapping a codeword related to the discovery signal to at least two physical resource block, PRB, pairs including a first PRB pair and a second PRB pair on a time axis; and transmitting the mapped codeword related to the discovery signal, wherein the first PRB pair includes a resource region for transmitting a specific signal used for automatic gain control, AGC, of a counterpart UE receiving the mapped codeword, and wherein the second PRB pair includes a resource region for transmitting the specific signal for AGC when a subframe subsequent to a subframe including the first PRB pair is for downlink transmission, and the second PRB pair does not include a resource region for transmitting the specific signal for AGC when the subframe subsequent to the subframe including the first PRB pair is for uplink transmission.
The compound selected from the group consisting of: Nomenclature Structure 8-(6-tert-butyl-8-fluoro-1-oxophthalazin-2-yl)-6-hydroxy-4-methyl-2-[[5-(morpholine-4-carbonyl)pyridin-2-yl]amino]-6,7-dihydro-5 H- benzo[1,2]cyclohepta[6,7- d]pyridin-3-one 8-(6-tert-butyl-8-fluoro-1-oxophthalazin-2-yl)-6-hydroxy-4-methyl-2-[[5-[(2 S)-1-methylpyrrolidin-2-yl]pyridin-2-yl]amino]-6,7-dihydro-5 H- benzo[1,2] cyclohepta[6,7- d]pyridin-3-one (6 S)-8-(6-tert-butyl-8-fluoro-1-oxophthalazin-2-yl)-6-hydroxy-4-methyl-2-[[5-(morpholine-4-carbonyl)pyridin-2-yl]amino]-6,7-dihydro-5 H- benzo[1,2]cyclohepta[6,7- d]pyridin-3-one (6 R)-8-(6-tert-butyl-8-fluoro-1-oxophthalazin-2-yl)-6-hydroxy-4-methyl-2-[[5-(morpholine-4-carbonyl)pyridin-2-yl]amino]-6,7-dihydro-5 H- benzo[1,2]cyclohepta[6,7- d]pyridin-3-one 8-(8-fluoro-1-oxophthalazin-2-yl)-6-hydroxy-4-methyl-2-[[5-(morpholine-4-carbonyl)pyridin-2-yl]amino]-6,7-dihydro-5 H- benzo[1,2]cyclohepta[6,7- d]pyridin-3-one (6 S)-8-(8-fluoro-1-oxophthalazin-2-yl)-6-hydroxy-4-methyl-2-[[5-(morpholine-4-carbonyl)pyridin-2-yl]amino]-6,7-dihydro-5 H- benzo[1,2]cyclohepta[6,7- d]pyridin-3-one (6 R)-8-(8-fluoro-1-oxophthalazin-2-yl)-6-hydroxy-4-methyl-2-[[5-(morpholine-4-carbonyl)pyridin-2-yl]amino]-6,7-dihydro-5 H- benzo[1,2]cyclohepta[6,7- d]pyridin-3-one
Computer-implemented method for determining objects in an image captured by a mobile device comprising: - determining a position of the mobile device in a room using at least one indoor positioning method, - capturing an image of the room with the mobile device, - first determining potential objects in the image depending on the determined position, - subsequently comparing the image with image information of the potential objects to determine at least one object from the potential objects in the image, characterized in that - orientation information of the mobile device is obtained together with the image, - a field of view of the mobile device is determined as a function of the orientation information and the position, and - the potential objects are determined depending on the field of view and their respective position information. - determining a position of the mobile device in a room using at least one indoor positioning method, - capturing an image of the room with the mobile device, - first determining potential objects in the image depending on the determined position, - subsequently comparing the image with image information of the potential objects to determine at least one object from the potential objects in the image, - orientation information of the mobile device is obtained together with the image, - a field of view of the mobile device is determined as a function of the orientation information and the position, and - the potential objects are determined depending on the field of view and their respective position information.
A method for operating a bi-directional current sensor system, the method comprising: sensing a first signal (Ifb) of a first synchronous rectifier of a bi-directional converter with a first transformer; sensing a second signal (Ifb) of a second synchronous rectifier of a bi-directional converter with a second transformer; DC restoring the first signal (Ifb) and the second signal (Ifb) to obtain a first DC restored signal and a second DC restored signal respectively, wherein the first DC restored signal is substantially equal to a DC component of the first signal (Ifb) and the second DC restored signal is substantially equal to a DC component of the second signal (Ifb); feedback correcting the first signal and the second signal to provide a bi-directional signal that is proportional to a bi-directional current through the bi-directional converter; and controlling a bi-directional converter based on the bi-directional signal. sensing a first signal (Ifb) of a first synchronous rectifier of a bi-directional converter with a first transformer; sensing a second signal (Ifb) of a second synchronous rectifier of a bi-directional converter with a second transformer; DC restoring the first signal (Ifb) and the second signal (Ifb) to obtain a first DC restored signal and a second DC restored signal respectively, wherein the first DC restored signal is substantially equal to a DC component of the first signal (Ifb) and the second DC restored signal is substantially equal to a DC component of the second signal (Ifb); feedback correcting the first signal and the second signal to provide a bi-directional signal that is proportional to a bi-directional current through the bi-directional converter; and controlling a bi-directional converter based on the bi-directional signal.