mhurhangee/ep-ind-claims huggingface dataset:
A light blocking device arranged to be driven in a light transmitting mode and a light blocking mode, the light blocking device comprising: a first substrate and a second substrate facing each other; a first electrode on the first substrate; a second electrode on the second substrate; a polymer dispersed liquid crystal, PDLC, layer between the first electrode and the second electrode; and a voltage supply unit arranged to supply a voltage to the first electrode and the second electrode during the light transmitting mode, wherein the PDLC layer comprises a droplet including liquid crystals, dichroic dyes and a chiral dopant, the liquid crystals and the dichroic dyes being configured to be twisted with each other; wherein the liquid crystals and the dichroic dyes are twisted by a reference angle in the droplet, the reference angle being between 360 degrees and 3,600 degrees; wherein the voltage supply unit is arranged to supply a first voltage during a first reference time (Tref1) when the PDLC layer is driven in the light transmitting mode, where a first voltage difference between the first electrode and the second electrode corresponds to a first reference value; and wherein the voltage supply unit is arranged to supply a second voltage during a second reference (Tref2) time when the PDLC layer is driven in the light transmitting mode, where a second voltage difference between the first electrode and the second electrode corresponds to a second reference value less than the first reference value. a first substrate and a second substrate facing each other; a first electrode on the first substrate; a second electrode on the second substrate; a polymer dispersed liquid crystal, PDLC, layer between the first electrode and the second electrode; and a voltage supply unit arranged to supply a voltage to the first electrode and the second electrode during the light transmitting mode, wherein the PDLC layer comprises a droplet including liquid crystals, dichroic dyes and a chiral dopant, the liquid crystals and the dichroic dyes being configured to be twisted with each other; wherein the liquid crystals and the dichroic dyes are twisted by a reference angle in the droplet, the reference angle being between 360 degrees and 3,600 degrees; wherein the voltage supply unit is arranged to supply a first voltage during a first reference time (Tref1) when the PDLC layer is driven in the light transmitting mode, where a first voltage difference between the first electrode and the second electrode corresponds to a first reference value; and wherein the voltage supply unit is arranged to supply a second voltage during a second reference (Tref2) time when the PDLC layer is driven in the light transmitting mode, where a second voltage difference between the first electrode and the second electrode corresponds to a second reference value less than the first reference value.
A vehicle heating apparatus (10a-10f) to be mounted on or built in a vehicle seat at a location below a sitting portion of the vehicle seat, the vehicle heating apparatus comprising: a housing having an intake port, a left nozzle, a right nozzle, an air curtain nozzle, and an internal space serving as air flow paths from the intake port to an opening of the left nozzle, to an opening of the right nozzle, and to an opening of the air curtain nozzle; a fan provided in the internal space; and a heater provided in the internal space, wherein the left nozzle and the right nozzle are formed so as to, in a usage state where the vehicle heating apparatus (10a-10f) is mounted on the vehicle seat, blow warm wind produced by the heater and the fan downward with respect to a horizontal direction at locations spaced apart from each other in a width direction of the vehicle seat, and the air curtain nozzle is located between the left nozzle and the right nozzle, and is formed so as to, in the usage state, blow air delivered by the fan in a direction inclined upward at an angle of not more than 90° to a direction in which the warm wind is blown out of the left nozzle and the right nozzle. a housing having an intake port, a left nozzle, a right nozzle, an air curtain nozzle, and an internal space serving as air flow paths from the intake port to an opening of the left nozzle, to an opening of the right nozzle, and to an opening of the air curtain nozzle; a fan provided in the internal space; and a heater provided in the internal space, wherein the left nozzle and the right nozzle are formed so as to, in a usage state where the vehicle heating apparatus (10a-10f) is mounted on the vehicle seat, blow warm wind produced by the heater and the fan downward with respect to a horizontal direction at locations spaced apart from each other in a width direction of the vehicle seat, and the air curtain nozzle is located between the left nozzle and the right nozzle, and is formed so as to, in the usage state, blow air delivered by the fan in a direction inclined upward at an angle of not more than 90° to a direction in which the warm wind is blown out of the left nozzle and the right nozzle.
A method for determining a sequence of a single-stranded nucleic acid template comprising: (a) hybridizing a sequencing primer to said single-stranded nucleic acid template, wherein said single-stranded target nucleic acid template comprises said sequence; (b) hybridizing an oligonucleotide probe comprising (i) a template-hybridizing nucleic acid sequence and (ii) a template-nonhybridizing nucleic acid structure to said single- stranded nucleic acid template, wherein said template-hybridizing nucleic acid sequence is complementary to said sequence, wherein said template-nonhybridizing nucleic acid structure is attached to said template-hybridizing nucleic acid sequence of said oligonucleotide probe, and wherein said template-nonhybridizing nucleic acid structure comprises a plurality of probe hybridization sites, wherein a probe hybridization site of said plurality of probe hybridization sites corresponds to a single known nucleotide of said template-hybridizing nucleic acid sequence, which single known nucleotide is complementary to a nucleotide of said sequence; (c) ligating said template-hybridizing nucleic acid sequence to said sequencing primer to form an extended hybridized sequence; and (d) identifying individual probe hybridization sites of said plurality of probe hybridization sites to identify a plurality of nucleotides of said template-hybridizing nucleic acid sequence in said extended hybridized sequence, wherein identification of said plurality of nucleotides of said template-hybridizing nucleic acid sequence identifies said sequence of said single- stranded nucleic acid template. (a) hybridizing a sequencing primer to said single-stranded nucleic acid template, wherein said single-stranded target nucleic acid template comprises said sequence; (b) hybridizing an oligonucleotide probe comprising (i) a template-hybridizing nucleic acid sequence and (ii) a template-nonhybridizing nucleic acid structure to said single- stranded nucleic acid template, wherein said template-hybridizing nucleic acid sequence is complementary to said sequence, wherein said template-nonhybridizing nucleic acid structure is attached to said template-hybridizing nucleic acid sequence of said oligonucleotide probe, and wherein said template-nonhybridizing nucleic acid structure comprises a plurality of probe hybridization sites, wherein a probe hybridization site of said plurality of probe hybridization sites corresponds to a single known nucleotide of said template-hybridizing nucleic acid sequence, which single known nucleotide is complementary to a nucleotide of said sequence; (c) ligating said template-hybridizing nucleic acid sequence to said sequencing primer to form an extended hybridized sequence; and (d) identifying individual probe hybridization sites of said plurality of probe hybridization sites to identify a plurality of nucleotides of said template-hybridizing nucleic acid sequence in said extended hybridized sequence, wherein identification of said plurality of nucleotides of said template-hybridizing nucleic acid sequence identifies said sequence of said single- stranded nucleic acid template.
A processor for a user equipment used in a mobile communication system, the processor configured to if the user equipment is in an RRC connected state, perform a predetermined function according to configuration parameters configured from a network, wherein the processor is configured to invalidate at least a part of the configuration parameters and obtain a cell identifier list of cells forming a paging area of the user equipment in the RRC inactive state from the network, in response to the transition of the user equipment from the RRC connected state to a RRC inactive state, and the RRC inactive state is a state in which context information of the user equipment is maintained in the network, and the RRC inactive state is a different state from the RRC connected state and an RRC idle state, wherein the configuration parameters include dedicated configuration parameters individually configured to the user equipment, and the processor is configured to invalidate the dedicated configuration parameters in response to the transition of the user equipment from the RRC connected state to the RRC inactive state, the predetermined function is an LTE and WLAN aggregation, LWA, function configured to perform communication by using a WWAN communication resource and a WLAN communication resource at the same time, and the processor is configured to invalidate the dedicated configuration parameters for the WLAN communication resource in response to the transition of the user equipment from the RRC connected state to the RRC inactive state, wherein invalidating dedicated configuration parameters includes stopping applying the configuration parameters while maintaining the configuration parameters.
A valve comprising: a valve housing (105, 106); a casing disposed within the valve housing, the casing comprising a bore; a spring guide disposed within the bore; and a retaining cup disposed partially around the casing to engage and retain the spring guide at least partially within the bore of the casing; wherein the valve is a shuttle valve comprising two inlets (101, 102) and an outlet; the valve being characterised by: the outlet comprising the bore; and the engagement between the retaining cup and the spring guide being configured to allow fluid to flow through the bore and past the retaining cup. a valve housing (105, 106); a casing disposed within the valve housing, the casing comprising a bore; a spring guide disposed within the bore; and a retaining cup disposed partially around the casing to engage and retain the spring guide at least partially within the bore of the casing; wherein the valve is a shuttle valve comprising two inlets (101, 102) and an outlet; the valve being characterised by: the outlet comprising the bore; and the engagement between the retaining cup and the spring guide being configured to allow fluid to flow through the bore and past the retaining cup. the outlet comprising the bore; and the engagement between the retaining cup and the spring guide being configured to allow fluid to flow through the bore and past the retaining cup.
A lighting system comprising: a plurality of lighting apparatuses (41, 42 to N, 51 to M; 1320 to N) in series; a bridge device (40, 50; 1110; 1210) coupled to the plurality of lighting apparatuses; and a lighting controller coupled to the bridge device for controlling the lighting apparatuses, wherein one of the bridge device or the lighting controller generates address data for assigning an address to one of the plurality of lighting apparatuses, wherein each of the plurality of lighting apparatuses include an LED module; a connection circuit (451, 452 to N"; 1220) configured to control a connection between the bridge device and the plurality of lighting apparatuses; and a controller (540; 710) configured to control the connection circuit based on the address characterized in that the connection circuit includes: an input port (580; 740) to receive the data from the bridge device; an output port (580; 750) to relay the address data to a subsequent, serially connected lighting apparatus; and a switch (60; 735) to electrically connect or disconnect a connection between the input port and the output port. a plurality of lighting apparatuses (41, 42 to N, 51 to M; 1320 to N) in series; a bridge device (40, 50; 1110; 1210) coupled to the plurality of lighting apparatuses; and a lighting controller coupled to the bridge device for controlling the lighting apparatuses, wherein one of the bridge device or the lighting controller generates address data for assigning an address to one of the plurality of lighting apparatuses, wherein each of the plurality of lighting apparatuses include an LED module; a connection circuit (451, 452 to N"; 1220) configured to control a connection between the bridge device and the plurality of lighting apparatuses; and a controller (540; 710) configured to control the connection circuit based on the address characterized in that the connection circuit includes: an input port (580; 740) to receive the data from the bridge device; an output port (580; 750) to relay the address data to a subsequent, serially connected lighting apparatus; and a switch (60; 735) to electrically connect or disconnect a connection between the input port and the output port.
A pressure reducer for animal drinking troughs, comprising a housing in which a membrane is provided, said membrane dividing the housing into a liquid chamber for liquid for supplying the animal drinking troughs and a chamber with an adjustable regulating device acting on the membrane and with a regulating valve which is actuatable by the membrane and is assigned to an inlet, opening in the liquid chamber, for liquid from a liquid supply, wherein the regulating device is adjustable with the liquid of the liquid supply, characterized in that a force-measuring means for measuring a force or a mechanical pressure is provided between the regulating device and the membrane, a controller is provided, into which the desired intended pressure of the liquid to be supplied to the animal drinking troughs can be input, measured values detected by the force-measuring means can be supplied to the controller, and the valve in the inlet channel and the valve in the outflow channel can be controlled and/or can be regulated by the controller in accordance with the predetermined intended pressure, and that the regulating device has at least one hydraulically pre-stressable compression spring which presses against the membrane.
Torque transmission module intended to equip a motor vehicle transmission, comprising: - a cover, - a wet double clutch mechanism which is rotatable about an axis, and - a clutch case, comprising an oil distribution device intended to supply the wet double clutch with oil, the cover and the clutch case being assembled so as to form a casing defining a housing in which the wet double clutch mechanism is partly received, the casing being able to be received completely or partly in a clutch bell of the transmission, characterized in that the double clutch mechanism is supplied with oil from at least one oil supply duct (52, 53) formed in the clutch case, which communicates with at least one oil line (62, 63) formed completely or partly in the cover. - a cover, - a wet double clutch mechanism which is rotatable about an axis, and - a clutch case, comprising an oil distribution device intended to supply the wet double clutch with oil, the cover and the clutch case being assembled so as to form a casing defining a housing in which the wet double clutch mechanism is partly received, the casing being able to be received completely or partly in a clutch bell of the transmission, characterized in that the double clutch mechanism is supplied with oil from at least one oil supply duct (52, 53) formed in the clutch case, which communicates with at least one oil line (62, 63) formed completely or partly in the cover.
A work vehicle comprising: a frame structure; and a plurality of row units that respectively include: a ground system with at least one opener implement and at least one closing implement, the opener implement configured to create an opening in the ground as the work vehicle travels across a field, the closing implement configured to close the opening as the work vehicle travels across the field; a metering system including a metering element configured to singulate a commodity and meter out the commodity from the metering system; a commodity delivery system configured to receive the commodity metered out from the metering system and deliver the commodity into the opening before the closing implement closes the opening; and at least one air pressure device configured to generate an air pressure differential across the metering element to retain the commodity against the metering element of at least one of the plurality of row units to singulate the commodity, characterized in that the at least one air pressure device including an exhaust structure with a passage configured to direct exhaust toward the opening before the closing implement closes the opening as the row unit travels across the ground material. a frame structure; and a plurality of row units that respectively include: a ground system with at least one opener implement and at least one closing implement, the opener implement configured to create an opening in the ground as the work vehicle travels across a field, the closing implement configured to close the opening as the work vehicle travels across the field; a metering system including a metering element configured to singulate a commodity and meter out the commodity from the metering system; a commodity delivery system configured to receive the commodity metered out from the metering system and deliver the commodity into the opening before the closing implement closes the opening; and at least one air pressure device configured to generate an air pressure differential across the metering element to retain the commodity against the metering element of at least one of the plurality of row units to singulate the commodity, a ground system with at least one opener implement and at least one closing implement, the opener implement configured to create an opening in the ground as the work vehicle travels across a field, the closing implement configured to close the opening as the work vehicle travels across the field; a metering system including a metering element configured to singulate a commodity and meter out the commodity from the metering system; a commodity delivery system configured to receive the commodity metered out from the metering system and deliver the commodity into the opening before the closing implement closes the opening; and at least one air pressure device configured to generate an air pressure differential across the metering element to retain the commodity against the metering element of at least one of the plurality of row units to singulate the commodity,
Switching device for switching an electrical component into a current path, the switching device having: - a housing comprising a locking device for latching the housing onto a busbar, the locking device being formed movably for latching the housing on the busbar and for releasing the housing from the busbar; - a pivotable holding device, into which the electrical component can be inserted and switched into the current path by pivoting the holding device; characterised by - a single terminal, which is directly connected, via the electrical component switched into the current path, to at least one spring contact, which is provided on the housing and which, in a latched state of the housing, is positioned on the busbar. - a housing comprising a locking device for latching the housing onto a busbar, the locking device being formed movably for latching the housing on the busbar and for releasing the housing from the busbar; - a pivotable holding device, into which the electrical component can be inserted and switched into the current path by pivoting the holding device; characterised by - a single terminal, which is directly connected, via the electrical component switched into the current path, to at least one spring contact, which is provided on the housing and which, in a latched state of the housing, is positioned on the busbar.
A refrigerator comprising a cooling arrangement of the type that has at least one access door to at least one cold storage chamber of the refrigerator wherein said at least one access door consists of a compartment defined by a front panel, an inner panel and an inclined consumer product storage structure, said front panel is provided with a viewing/extraction window in conjunction with a pivoting sealing cover, while said inner panel is provided with multiple slots and a loading window, characterized in that said inclined storage structure consists of a divided horizontal "V"-shaped ramp having an initial upper section and a final lower section, wherein said "V"-shaped ramp extends parallel to the front and inner panels (5,6), and whereby the ramp inclines in a direction parallel to said front and inner panels (5,6).
Heat exchanger, notably for a motor vehicle, comprising a heat exchange core formed of a stack of plates allowing the circulation of a first and of a second fluid, and a casing inside which the said core is housed, characterized in that the said exchanger further comprises a header, fixed to the said casing, the said exchanger being configured to allow a foot of a header tank (2, 3) to be crimped between the said header and the said casing.
A method for checking the quality of a tilt image of a lens structure which is arranged on a carrier, characterized in that the method comprises at least the following steps of - incorporating at least one test pattern into the lens structure to be checked, by means of a laser having a defined laser power, - attaching the carrier on a holder, - rotating the holder by means of a motor, - illuminating the lens structure with a light source, - recording at least one image from the lens structure by means of an optical recording apparatus during rotation of the holder, - evaluating the at least one image recorded by the optical recording apparatus with respect to its colour values and controlling the motor by means of a data processing device, - wherein the test pattern is used for measuring or verifying the lens width. - incorporating at least one test pattern into the lens structure to be checked, by means of a laser having a defined laser power, - attaching the carrier on a holder, - rotating the holder by means of a motor, - illuminating the lens structure with a light source, - recording at least one image from the lens structure by means of an optical recording apparatus during rotation of the holder, - evaluating the at least one image recorded by the optical recording apparatus with respect to its colour values and controlling the motor by means of a data processing device, - wherein the test pattern is used for measuring or verifying the lens width.
At least one compound comprising a peptide having the amino acid sequence selected from the group consisting of CDQPVLPD, CDMPVLPD, CDSPVLPD, CDQPVLPDN, CDMPVLPDN, CDSPVLPDN, CHDRPVTPD, CDRPVTPD, CDVPVLPD, CDTPVYPD, CDTPVIPD, CHDRPVTPDN, CDRPVTPDN, CDVPVLPDN, CDTPVYPDN, CDQPVLPDG, CDMPVLPDG, CDSPVLPDG, CDHPVHPDS, CDMPVSPDR, CDRPVYPDI, CDHPVTPDR, CDTPVLPDS, CDMPVTPDT, CDAPVTPDT, CDSPVVPDN, CDLPVTPDR, CDSPVHPDT, CDAPVRPDS, CDMPVWPDG, CDRPVQPDR, CYDRPVQPDR, CDMPVDADN, DQPVLPDC and DMPVLPDC, for use for preventing and/or treating synucleinopathies.