mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting diode (21, 31, 41, 51) comprising: a light-emitting element with a p-n junction; a first light-transmitting member (24, 64) comprising a phosphor, sealing the light-emitting element, and having first (24a, 64a) and second (24b, 64b) parallel surfaces that are positioned parallel to each other; a first cover (25, 55) disposed on the first parallel surface (24a, 64a) of the first light-transmitting member (24, 64); and a second cover (26, 56) disposed on the second parallel surface (24b, 64b) of the first light-transmitting member (24, 64), the first cover (25, 55) extending over an edge (24ac, 64ac; 24ae, 64ae) of the first parallel surface (24a, 64a) of the first light-transmitting member (24, 64), and the second cover (26, 56) extending over an edge (24bc, 64bc; 24be, 64be) of the second parallel surface (24b, 64b) of the first light-transmitting member (24, 64), characterized in that the first light-transmitting member (24, 64) further comprises first (24c, 64c), second (24e, 64e), and third (24d, 64d) perpendicular surfaces that extend perpendicularly to the first (24a, 64a) and second (24b, 64b) parallel surfaces between edges (24ac, 64ac, 24ae, 64ae, 24ad, 64ad) of the first parallel surface (24a, 64a) and edges (24bc, 64bc, 24be, 64be, 24bd, 64bd) of the second parallel surface, being configured to emit light with a wide angle of light emitted through the first (24c, 64c), the second (24e, 64e) and the third (24d, 64d) perpendicular surfaces, which are surrounded by air. a light-emitting element with a p-n junction; a first light-transmitting member (24, 64) comprising a phosphor, sealing the light-emitting element, and having first (24a, 64a) and second (24b, 64b) parallel surfaces that are positioned parallel to each other; a first cover (25, 55) disposed on the first parallel surface (24a, 64a) of the first light-transmitting member (24, 64); and a second cover (26, 56) disposed on the second parallel surface (24b, 64b) of the first light-transmitting member (24, 64), the first cover (25, 55) extending over an edge (24ac, 64ac; 24ae, 64ae) of the first parallel surface (24a, 64a) of the first light-transmitting member (24, 64), and the second cover (26, 56) extending over an edge (24bc, 64bc; 24be, 64be) of the second parallel surface (24b, 64b) of the first light-transmitting member (24, 64), characterized in that the first light-transmitting member (24, 64) further comprises first (24c, 64c), second (24e, 64e), and third (24d, 64d) perpendicular surfaces that extend perpendicularly to the first (24a, 64a) and second (24b, 64b) parallel surfaces between edges (24ac, 64ac, 24ae, 64ae, 24ad, 64ad) of the first parallel surface (24a, 64a) and edges (24bc, 64bc, 24be, 64be, 24bd, 64bd) of the second parallel surface, being configured to emit light with a wide angle of light emitted through the first (24c, 64c), the second (24e, 64e) and the third (24d, 64d) perpendicular surfaces, which are surrounded by air.
An electrical plug connector for use between a corresponding socket and an electrical control device for a restraint system in motor vehicles, having a housing with at least one locking arm (11, 11') for latching the housing with the socket, which locking arm has an at least partially spring-loaded design and can be actuated for unlocking purposes between a locking position and an unlocking position, wherein the locking arm (11, 11') - the plug connector has a locking configuration in the locking position when a tensile force is applied to release the plug connector from the socket, - has a lower solid bearing and also an upper sliding bearing and - is configured in a detachably latching manner in the unlocking position. - the plug connector has a locking configuration in the locking position when a tensile force is applied to release the plug connector from the socket, - has a lower solid bearing and also an upper sliding bearing and - is configured in a detachably latching manner in the unlocking position.
Bicycle comprising - a crank drive which has a first crank with a first pedal and a second crank with a second pedal, - at least one force sensor for determining a pedalling force of a rider of the bicycle, - at least one crank sensor for determining a position of the cranks, - an output device for outputting information to the driver, - a control unit which is connected to the force sensor, to the crank sensor and to the output device, - wherein the control device is configured to output assistance based on the detected values of the force sensor and of the crank sensor in order to improve a pedalling process of the rider, in order to approach an optimum round pedalling action, and characterized by - an electric motor which is connected to the control unit and which is configured to output a torque to the crank drive, wherein the control unit actuates the electric motor in such a way that during a pedalling process of a rider the electric motor outputs an additional torque to the crank drive in order to achieve an optimum round pedalling action or approximate to an optimum round pedalling action at the crank drive. - a crank drive which has a first crank with a first pedal and a second crank with a second pedal, - at least one force sensor for determining a pedalling force of a rider of the bicycle, - at least one crank sensor for determining a position of the cranks, - an output device for outputting information to the driver, - a control unit which is connected to the force sensor, to the crank sensor and to the output device, - wherein the control device is configured to output assistance based on the detected values of the force sensor and of the crank sensor in order to improve a pedalling process of the rider, in order to approach an optimum round pedalling action, and - an electric motor which is connected to the control unit and which is configured to output a torque to the crank drive, wherein the control unit actuates the electric motor in such a way that during a pedalling process of a rider the electric motor outputs an additional torque to the crank drive in order to achieve an optimum round pedalling action or approximate to an optimum round pedalling action at the crank drive.
An impact energy-absorbing component for a trim or a roof component of automobiles, with an attachment structure for attaching the energy-absorbing component to a member, wherein the energy-absorbing component is attachable to the member by engaging a first locking part that is integrated with the energy-absorbing component with an opening provided in the member, the first locking part can be resiliently deformed, and when engaged with the opening, the first locking part is resiliently deformed and is then resiliently restored to engage with the opening, a base of the first locking part is embedded in the energy-absorbing component, the base including a cylindrical part and an anchor, the energy-absorbing component is composed of rigid urethane foam, wherein the first locking part comprises a claw part engageable with the edge of the opening, and wherein the first locking part comprises a projection projecting from the energy-absorbing component and the claw part is provided on the side face of the projection in the projecting direction, characterized in that: the first locking part comprises a flange and the edge of the opening is holdable between the flange and the claw part. the first locking part comprises a flange and the edge of the opening is holdable between the flange and the claw part.
A method of user power offset estimation for a wireless communication system, in which dedicated pilot symbols transmitted over at least one time-frequency region for a user are received; characterized in that power offset of the user is estimated based on the received dedicated pilot symbols as energy of projections of the received dedicated pilot symbols on dimensions occupied by a signal of the user; and wherein the at least one time-frequency region is for a forward link or a reverse link of an orthogonal frequency division multiple access, OFDMA, system.
Device for displacing bottom material under water, comprising a frame which is displaceable under water by being coupled to a vessel, which frame comprises a tubular liquid container with outflow openings for a liquid directed toward the bottom, wherein the outflow openings are placed such that during use the liquid may be injected into or against the bottom and the device is held some distance from the bottom by the pressure developed by the liquid jets on the bottom and the coupling to the vessel, wherein the device further comprises suction means (5a, 5b) driven by means of a drive for supplying the liquid under pressure from a source to the container, wherein the suction means (5a, 5b) are situated under water during use, and a pusher member bounded on a base part thereof by a cutting edge, wherein further the cutting edge of the pusher member is positioned relative to the outflow openings such that the device either displaces bottom material under the influence of the injection of liquid into or against the bottom, or by means of the pusher member.
A method of detecting the presence or absence of a mutation in the PIK3CA gene comprising the steps of: a) mixing a nucleic acid sample comprising at least a fragment of the PIK3CA gene with a first primer and a second primer and carrying out PCR on the mixture; and b) detecting hybridization of the first primer to the nucleic acid sample wherein hybridization indicates the presence of a mutation, wherein the first primer is capable of hybridizing to the E545K mutant sequence of the PIK3CA gene but is not complementary to the wild type sequence and wherein the final six nucleotides at the 3' end of the first primer are identical with the final six nucleotides at the 3' end of SEQ ID NO. 14, wherein the primer hybridises to the mutant sequence more readily than to the wild type sequence and wherein the second primer corresponds to a region of the fragment of the PIK3CA sequence downstream of the region to which the first primer is complementary. a) mixing a nucleic acid sample comprising at least a fragment of the PIK3CA gene with a first primer and a second primer and carrying out PCR on the mixture; and b) detecting hybridization of the first primer to the nucleic acid sample wherein hybridization indicates the presence of a mutation,
Adjustment device of a cable for the actuation of a vehicle, including an automobile, seat locking mechanism, the said cable being driven by a control lever of the said mechanism and sliding into a sheath, the said adjustment device containing means of attachment suitable for securing the said sheath to the adjustment device 00) and means of mounting adapted to attach the cable to the adjustment device, means of mounting being mobile in relation to means of fastening in order to adjust a functional set of the cable defined by the distance (Dmax, Dmin) between means of fastening and means of mounting, the adjustment device which also includes means of servo of the adjustment of the functional set of the cable, characterized by: - the controller switches between a rest position in which the W cable is not tensioned and an actuation position in which the W cable is drawn in order to control the release of the S-seat blocking mechanism, - when switching the controller from the rest position to the failover position, the W cable is first stretched to catch up with the operating set before being pulled, the means of mounting comprising a fixed part which is attached to the main body and a mobile part which is sliding in relation to the said fixed part, the said mobile part 2) is adapted to attach the said cable to the adjustment device (100. - the controller switches between a rest position in which the W cable is not tensioned and an actuation position in which the W cable is drawn in order to control the release of the S-seat blocking mechanism, - when switching the controller from the rest position to the failover position, the W cable is first stretched to catch up with the operating set before being pulled, the means of mounting comprising a fixed part which is attached to the main body and a mobile part which is sliding in relation to the said fixed part, the said mobile part 2) is adapted to attach the said cable to the adjustment device (100.
A mechanical seal for mounting to a housing containing a rotating shaft, said mechanical seal comprising: a gland; at least one pair of seal members (42, 54) disposed at least partially within the gland, said seal members including a rotary seal ring having a rotary seal face and a stationary seal ring having a stationary seal face engaging the rotary seal face; and a shuttle member positioned adjacent to the rotary seal ring and axially movable between a first position and a second position in response to changing pressure conditions within the mechanical seal, wherein the shuttle member is axially spaced from a non-seal face of the rotary seal ring when disposed in the first position and when subjected to a first pressure condition, and is positioned adjacent to the non-seal face of the seal ring when disposed in the second position when subjected to a second pressure condition different from said first pressure condition, wherein the shuttle member includes a housing having one or more grooves formed therein for seating a sealing element. a gland; at least one pair of seal members (42, 54) disposed at least partially within the gland, said seal members including a rotary seal ring having a rotary seal face and a stationary seal ring having a stationary seal face engaging the rotary seal face; and a shuttle member positioned adjacent to the rotary seal ring and axially movable between a first position and a second position in response to changing pressure conditions within the mechanical seal, wherein the shuttle member is axially spaced from a non-seal face of the rotary seal ring when disposed in the first position and when subjected to a first pressure condition, and is positioned adjacent to the non-seal face of the seal ring when disposed in the second position when subjected to a second pressure condition different from said first pressure condition, wherein the shuttle member includes a housing having one or more grooves formed therein for seating a sealing element.
A masterbatch for preparing plastic film with high ethylene permselectivity comprising: styrene- b -(ethylene- ran -butylene)- b -styrene copolymers with styrene to ethylene- ran -butylene content of 12: 88 to 14: 86; and zeolites of which surface is modified by silylation reaction with organosilane compound and which is presented in an amount of 30% to 70% by weight of said copolymer combined with zeolite, wherein said organosilane compound having the chemical formula: R n 1 S i R 2 R 3 − n in which R is methoxy, ethoxy or chloro group, R 1 is methyl group, R 2 is functional group capable of forming π-π interaction selected from the group consisting of phenyl, phenylethyl, vinyl, and propyl methacrylate groups, and n is 0 and 2 styrene- b -(ethylene- ran -butylene)- b -styrene copolymers with styrene to ethylene- ran -butylene content of 12: 88 to 14: 86; and zeolites of which surface is modified by silylation reaction with organosilane compound and which is presented in an amount of 30% to 70% by weight of said copolymer combined with zeolite, wherein said organosilane compound having the chemical formula: R n 1 S i R 2 R 3 − n in which R is methoxy, ethoxy or chloro group, R 1 is methyl group, R 2 is functional group capable of forming π-π interaction selected from the group consisting of phenyl, phenylethyl, vinyl, and propyl methacrylate groups, and n is 0 and 2 R is methoxy, ethoxy or chloro group, R 1 is methyl group, R 2 is functional group capable of forming π-π interaction selected from the group consisting of phenyl, phenylethyl, vinyl, and propyl methacrylate groups, and n is 0 and 2
A method for cell congestion detection of a communication device, wherein the communication device is a mobile node, the method comprising: determining, by the communication device, congestion of a first network node; and sending, by the communication device, a cell congestion detected message to at least one other network node, wherein the cell congestion detected message includes suggested actions and suggested amounts, wherein the suggested actions aim at offloading traffic from the first network node by increasing transmit power and/or adjusting cell selection parameters by the suggested amounts for the at least one other network node receiving the cell congestion detected message.
Monitoring method for a coolant circuit, in which a coolant flows, by means of which a conversion device giving rise to a power loss is cooled, - wherein a monitoring device determines, on the basis of operating data (TV, TL, δP) of the conversion device and/or of the coolant circuit, a flow velocity (v) at which the coolant flows in the coolant circuit, - wherein the monitoring device compares the determined flow velocity (v) with a limit velocity (vG), - wherein the monitoring device resorts to a special reaction if the flow velocity (v) reaches or exceeds the limit velocity (vG), - wherein the monitoring device resorts either to no reaction at all or to a normal reaction that is not the same as the special action as long as the flow velocity (v) does not reach the limit velocity (vG), and - wherein a local temperature of the conversion device is known to the monitoring device, characterised in that - a quantity of heat to be removed per unit of time by means of the coolant is known to the monitoring device, - an inflow temperature at which the coolant is supplied to the conversion device is sent to the monitoring device as a measurement value, and - the monitoring device determines the flow velocity (v) on the basis of the quantity of heat to be removed per unit of time, the local temperature of the conversion device and the inflow temperature. - wherein a monitoring device determines, on the basis of operating data (TV, TL, δP) of the conversion device and/or of the coolant circuit, a flow velocity (v) at which the coolant flows in the coolant circuit, - wherein the monitoring device compares the determined flow velocity (v) with a limit velocity (vG), - wherein the monitoring device resorts to a special reaction if the flow velocity (v) reaches or exceeds the limit velocity (vG), - wherein the monitoring device resorts either to no reaction at all or to a normal reaction that is not the same as the special action as long as the flow velocity (v) does not reach the limit velocity (vG), and - wherein a local temperature of the conversion device is known to the monitoring device, - a quantity of heat to be removed per unit of time by means of the coolant is known to the monitoring device, - an inflow temperature at which the coolant is supplied to the conversion device is sent to the monitoring device as a measurement value, and - the monitoring device determines the flow velocity (v) on the basis of the quantity of heat to be removed per unit of time, the local temperature of the conversion device and the inflow temperature.
Superconducting wire, containing NbTi superconducting material and Cu, comprising a plurality of hexagonal elements having an at least approximately hexagonal outer contour in a cross-section perpendicular to a direction of extension of the superconducting wire, characterized in that at least a portion of the hexagonal elements is configured as Cu-AI composite elements, wherein the Cu-AI composite elements, in a cross-section perpendicular to a direction of extension of the superconducting wire, are each configured with an Al core and a Cu sheath that surrounds the Al core, and that the superconducting wire comprises a sleeve, in particular a Cu sleeve, in which is embedded a plurality of mutually separated NbTi substructures, wherein each NbTi substructure comprises one or a plurality of NbTi filaments.
A method of inspecting a wire harness, the method comprising: a) switching images respectively corresponding to assembly steps of the wire harness in accordance with an advancement of the assembly steps to display the switched image on a display unit; b) reading first electric cable identification information attached to an electric cable configuring the wire harness and second electric cable identification information displayed on an electric cable image (23a-d) included in the image; c) determining whether or not the read first electric cable identification information and the read second electric cable identification information match with each other; and d) making a correspondence between a determination result of the step c) and identification information about an assembly product of the wire harness, and receiving and storing the determination result of the step c) in each of the assembly steps as operation history information; and e) inspecting the assembly product of the wire harness on the basis of the operation history information for each of the assembly steps. a) switching images respectively corresponding to assembly steps of the wire harness in accordance with an advancement of the assembly steps to display the switched image on a display unit; b) reading first electric cable identification information attached to an electric cable configuring the wire harness and second electric cable identification information displayed on an electric cable image (23a-d) included in the image; c) determining whether or not the read first electric cable identification information and the read second electric cable identification information match with each other; and d) making a correspondence between a determination result of the step c) and identification information about an assembly product of the wire harness, and receiving and storing the determination result of the step c) in each of the assembly steps as operation history information; and e) inspecting the assembly product of the wire harness on the basis of the operation history information for each of the assembly steps.
A switching element drive device comprising: a current sensor configured to measure a load current flowing through a load; a voltage sensor configured to measure an input voltage inputted from a power supply; and a control part configured to output a command value of a gate drive voltage to a gate drive voltage supply part, the gate drive voltage supply part being configured to supply the gate drive voltage for driving a switching element disposed between the power supply and the load, wherein the control part is further configured to determine the command value of the gate drive voltage based on the load current and the input voltage; and characterized in that the command value of the gate drive voltage is a sum of a product of a first coefficient and the load current and a product of a second coefficient and the input voltage; and at least one of the first coefficient or the second coefficient is a function of the load current and/or the input voltage. a current sensor configured to measure a load current flowing through a load; a voltage sensor configured to measure an input voltage inputted from a power supply; and a control part configured to output a command value of a gate drive voltage to a gate drive voltage supply part, the gate drive voltage supply part being configured to supply the gate drive voltage for driving a switching element disposed between the power supply and the load, wherein the control part is further configured to determine the command value of the gate drive voltage based on the load current and the input voltage; and characterized in that the command value of the gate drive voltage is a sum of a product of a first coefficient and the load current and a product of a second coefficient and the input voltage; and at least one of the first coefficient or the second coefficient is a function of the load current and/or the input voltage.