mhurhangee/ep-ind-claims huggingface dataset:
A metering system for metering a metered medium comprising - a frame housing unit, - a lever mounting unit which is supported on the frame housing unit comprising a lever mount, - a, preferably asymmetrical, lever which is supported rotatably by means of the lever mount about a tilt axis comprising a two-sided lever arm extending substantially in a longitudinal direction of the lever, wherein one lever arm side, preferably the longer lever arm side, has a first actuator engagement point close to the tilt axis and is in contact remotely from the tilt axis at an end portion with an ejection element, preferably a ram, and wherein the other lever arm side, preferably the shorter lever arm side, has a second actuator engagement point close to the tilt axis, - two actuators (50a, 50b), which, during operation, exert a tilting moment in opposite directions on the lever at the first and second actuator engagement point (36, 37), wherein together, the lever mounting unit, the lever, and the two actuators (50a, 50b) form a movement mechanism (3, 4, 5, 30, 50a, 50b), which is braced on the frame housing unit by means of at least one spring element, preferably a disc spring set, wherein the spring element is preferably arranged so that it braces the lever mounting unit against the frame housing unit via the lever as well as via the two actuators (50a, 50b), characterized in that the actuators (50a, 50b) are placed obliquely to one another in a V-shaped manner. - a frame housing unit, - a lever mounting unit which is supported on the frame housing unit comprising a lever mount, - a, preferably asymmetrical, lever which is supported rotatably by means of the lever mount about a tilt axis comprising a two-sided lever arm extending substantially in a longitudinal direction of the lever, wherein one lever arm side, preferably the longer lever arm side, has a first actuator engagement point close to the tilt axis and is in contact remotely from the tilt axis at an end portion with an ejection element, preferably a ram, and wherein the other lever arm side, preferably the shorter lever arm side, has a second actuator engagement point close to the tilt axis, - two actuators (50a, 50b), which, during operation, exert a tilting moment in opposite directions on the lever at the first and second actuator engagement point (36, 37), wherein together, the lever mounting unit, the lever, and the two actuators (50a, 50b) form a movement mechanism (3, 4, 5, 30, 50a, 50b), which is braced on the frame housing unit by means of at least one spring element, preferably a disc spring set, wherein the spring element is preferably arranged so that it braces the lever mounting unit against the frame housing unit via the lever as well as via the two actuators (50a, 50b), characterized in that the actuators (50a, 50b) are placed obliquely to one another in a V-shaped manner.
An inhibitor of miR-210 for use in the treatment of sepsis or of a Trypanosoma infection, wherein said inhibitor of miR-210 is a DNA nuclease specifically knocking out or disrupting the miR-210 gene, an RNase specifically targeting miR-210, or an inhibitory oligonucleotide targeting miR-210.
Method of spraying a thermal insulation material on a surface of an underfloor void, the method comprising: providing an apparatus comprising: at least one elongate member having a distal end and a proximal end; at least one spray nozzle mounted at the distal end of the elongate member for spraying the thermal insulation material in a spray pattern, the spray nozzle being connected to a spray material input at the proximal end of the elongate member and being mounted for motorised movement relative to the distal end of the elongate member; a camera mounted at the distal end of the elongate member and connected to a camera output at the proximal end of the elongate member, the camera being arranged to capture images of the spray pattern; and a control mechanism (9, 10) arranged to control operation of the spray nozzle from the proximal end of the elongate member; and inserting the elongate member through an opening of the underfloor void; and an operator outside the void controlling the apparatus to spray thermal insulation material on the surface of the underfloor void, whereby to allow the operator to carry out operations within the void whilst the operator remains outside the void. providing an apparatus comprising: at least one elongate member having a distal end and a proximal end; at least one spray nozzle mounted at the distal end of the elongate member for spraying the thermal insulation material in a spray pattern, the spray nozzle being connected to a spray material input at the proximal end of the elongate member and being mounted for motorised movement relative to the distal end of the elongate member; a camera mounted at the distal end of the elongate member and connected to a camera output at the proximal end of the elongate member, the camera being arranged to capture images of the spray pattern; and a control mechanism (9, 10) arranged to control operation of the spray nozzle from the proximal end of the elongate member; and at least one elongate member having a distal end and a proximal end; at least one spray nozzle mounted at the distal end of the elongate member for spraying the thermal insulation material in a spray pattern, the spray nozzle being connected to a spray material input at the proximal end of the elongate member and being mounted for motorised movement relative to the distal end of the elongate member; a camera mounted at the distal end of the elongate member and connected to a camera output at the proximal end of the elongate member, the camera being arranged to capture images of the spray pattern; and a control mechanism (9, 10) arranged to control operation of the spray nozzle from the proximal end of the elongate member; and inserting the elongate member through an opening of the underfloor void; and an operator outside the void controlling the apparatus to spray thermal insulation material on the surface of the underfloor void, whereby to allow the operator to carry out operations within the void whilst the operator remains outside the void.
A method of preparation for psicose comprising: separating psicose-conversion product with a simulated moving bed chromatography to obtain a psicose fraction and a fructose raffinate, providing the fructose raffinate into a separation step of fructose preparation to prepare fructose-containing raw material, and conducting psicose conversion reaction by using the fructose-containing raw material, characterized in that, the separation step of fructose preparation comprises at least one step selected from the group consisting of an ion purification step and a SMB chromatography, and the fructose raffinate is provided to one or more kinds of steps selected from the group consisting of the ion purification step and the SMB chromatography. separating psicose-conversion product with a simulated moving bed chromatography to obtain a psicose fraction and a fructose raffinate, providing the fructose raffinate into a separation step of fructose preparation to prepare fructose-containing raw material, and conducting psicose conversion reaction by using the fructose-containing raw material, characterized in that, the separation step of fructose preparation comprises at least one step selected from the group consisting of an ion purification step and a SMB chromatography, and the fructose raffinate is provided to one or more kinds of steps selected from the group consisting of the ion purification step and the SMB chromatography.
A system comprising: at least one perception sensor (30, 34), and a controller circuit configured to: monitor, while a host vehicle is operated in a manual driving mode including semi-automated driver assistance features, a speed change response of an operator of the host vehicle based on an indication by the at least one perception sensor (30, 34) that a first vehicle, traveling ahead of the host vehicle in an adjacent lane, moves from the adjacent lane into a travel lane of a roadway traveled by the host vehicle; identify at least one speed parameter based on the speed change response, the at least one speed parameter being one of a timing and a speed rate of change; determine an overlap threshold indicating a maximum lateral distance the first vehicle has overlapped a boundary of the travel lane at the time of the speed change response; and apply, when the host vehicle is controlled in an autonomous driving mode, the overlap threshold and the at least one speed parameter based on the movement of a second vehicle traveling on the roadway. at least one perception sensor (30, 34), and a controller circuit configured to: monitor, while a host vehicle is operated in a manual driving mode including semi-automated driver assistance features, a speed change response of an operator of the host vehicle based on an indication by the at least one perception sensor (30, 34) that a first vehicle, traveling ahead of the host vehicle in an adjacent lane, moves from the adjacent lane into a travel lane of a roadway traveled by the host vehicle; identify at least one speed parameter based on the speed change response, the at least one speed parameter being one of a timing and a speed rate of change; determine an overlap threshold indicating a maximum lateral distance the first vehicle has overlapped a boundary of the travel lane at the time of the speed change response; and apply, when the host vehicle is controlled in an autonomous driving mode, the overlap threshold and the at least one speed parameter based on the movement of a second vehicle traveling on the roadway. monitor, while a host vehicle is operated in a manual driving mode including semi-automated driver assistance features, a speed change response of an operator of the host vehicle based on an indication by the at least one perception sensor (30, 34) that a first vehicle, traveling ahead of the host vehicle in an adjacent lane, moves from the adjacent lane into a travel lane of a roadway traveled by the host vehicle; identify at least one speed parameter based on the speed change response, the at least one speed parameter being one of a timing and a speed rate of change; determine an overlap threshold indicating a maximum lateral distance the first vehicle has overlapped a boundary of the travel lane at the time of the speed change response; and apply, when the host vehicle is controlled in an autonomous driving mode, the overlap threshold and the at least one speed parameter based on the movement of a second vehicle traveling on the roadway.
A method for controlling temperature of an inverter system having an inverter including a switched-mode power supply (SMPS) as a heat source inside thereof, a Direct Current -link unit, a fan for cooling and a controller, characterized in that the method comprises: obtaining an internal temperature (Ti) of the inverter and a DC-link voltage of the inverter; and outputting a fan driving control signal for driving the fan when the internal temperature (Ti) is determined to be above a predetermined fan drive setting temperature (Td) and the DC-link voltage of DC-link unit is determined to be above a predetermined fan drive setting voltage while the fan is stopped (S2, S3, S4, S5, S6, S7). obtaining an internal temperature (Ti) of the inverter and a DC-link voltage of the inverter; and outputting a fan driving control signal for driving the fan when the internal temperature (Ti) is determined to be above a predetermined fan drive setting temperature (Td) and the DC-link voltage of DC-link unit is determined to be above a predetermined fan drive setting voltage while the fan is stopped (S2, S3, S4, S5, S6, S7).
A method carried out by a secure element (210, 502) that is communicatively coupled with a voice-communication device, the method comprising: performing a key-exchange procedure with an endpoint via the voice-communication device to obtain a symmetric seed key for a secure voice session with the endpoint; generating first and second symmetric session keys for the secure voice session based on the obtained symmetric seed key; receiving outbound voice packets from the voice-communication device in connection with the secure voice session, each outbound voice packet comprising an outbound-voice-packet header and an unencrypted outbound-voice-packet payload; using a first symmetric encryption algorithm to generate respective once-encrypted outbound-voice-packet payloads based on the first symmetric session key, all or part of the respective outbound-voice-packet headers, and the respective unencrypted outbound-voice-packet payloads; using a second symmetric encryption algorithm to generate respective twice-encrypted outbound-voice-packet payloads based on the second symmetric session key and the respective once-encrypted outbound-voice-packet payloads; and outputting the respective twice-encrypted outbound-voice-packet payloads to the voice-communication device for assembly with the respective outbound-voice-packet headers for transmission to the endpoint in connection with the secure voice session. performing a key-exchange procedure with an endpoint via the voice-communication device to obtain a symmetric seed key for a secure voice session with the endpoint; generating first and second symmetric session keys for the secure voice session based on the obtained symmetric seed key; receiving outbound voice packets from the voice-communication device in connection with the secure voice session, each outbound voice packet comprising an outbound-voice-packet header and an unencrypted outbound-voice-packet payload; using a first symmetric encryption algorithm to generate respective once-encrypted outbound-voice-packet payloads based on the first symmetric session key, all or part of the respective outbound-voice-packet headers, and the respective unencrypted outbound-voice-packet payloads; using a second symmetric encryption algorithm to generate respective twice-encrypted outbound-voice-packet payloads based on the second symmetric session key and the respective once-encrypted outbound-voice-packet payloads; and outputting the respective twice-encrypted outbound-voice-packet payloads to the voice-communication device for assembly with the respective outbound-voice-packet headers for transmission to the endpoint in connection with the secure voice session.
A device for supporting a motor vehicle transmission centre support bearing, including a mounting plate carrying a supporting member of a centre support bearing, characterized in that it comprises a shock impacter fixed on the mounting plate.
Fitting for a vehicle seat, in particular for a motor vehicle seat, with a first fitting part and a second fitting part, which are rotatable relative to each other, a clasping ring which - in order to axially hold the two fitting parts (11, 12) together - is fastened to the first fitting part by means of an outer ring section and embraces the second fitting part by means of an inner ring section, and stops (13g, 15) which serve to limit the relative rotation of the two fitting parts (11, 12) and which comprise at least one blocking stop which is connected to the second fitting part and which is provided on a structural part fastened to the second fitting part, characterized in that the stops comprise at least one limiting stop formed on the clasping ring and in that the limiting stop protrudes outward from the outer ring section of the clasping ring.
A dosage dispenser 10 for a waste holding tank 12, 24 having a pour out spout 22, 28 in communication with a waste chamber, the dosage dispenser 10, characterized by: a dosage housing 30 carried by the pour out spout 22, 28; and a plurality of dosages 32 disposed in the housing 30, the dosages of the plurality of dosages 32 each including a holding tank additive; wherein the dosage dispenser 10, is operable by a user to release a single dosage 32 of the plurality of dosages into the waste chamber in response to a user action. a dosage housing 30 carried by the pour out spout 22, 28; and a plurality of dosages 32 disposed in the housing 30, the dosages of the plurality of dosages 32 each including a holding tank additive; wherein the dosage dispenser 10, is operable by a user to release a single dosage 32 of the plurality of dosages into the waste chamber in response to a user action.
Tape adhesive for an insulating tape in an insulation system, having a dynamic viscosity of 1-100 Pa*s at impregnation temperature, which comprises an addition product formed from a bisphenol, diol, triol and/or higher alcohol, referred to hereinafter as " A n " segment, with cyclohexene oxide and/or a cyclohexene oxide derivative, referred to hereinafter as "Cy" segment, wherein the tape adhesive is free of oxirane groups.
A high light transmittance photovoltaic encapsulating material, characterized in that the high light transmittance photovoltaic encapsulating material is prepared by the following process: subjecting 100 mass parts of a photovoltaic encapsulating material matrix resin, 0.001 to 5 mass parts of a sulfur-containing compound, 0.01 to 10 mass parts of a reactive plasticizer, 0.01 to 1.5 mass parts of an initiator, 0.01 to 10 mass parts of an assistant cross-linker, 0.1 to 3.0 mass parts of a silane coupling agent, 0.1 to 0.4 mass parts of an ultraviolet light absorber, and 0.1 to 1.0 mass part of light stabilizer to pre-mixing, melt extrusion, film casting, cooling, slitting, and coiling; wherein the photovoltaic encapsulating material matrix resin is a transparent polymer material, and the polymer material is formed by one or more, mixed in any ratio, of ethylene-vinyl acetate copolymer, ethylene-α-olefin copolymer, ethylene-methyl methacrylate copolymer and ethylene-methacrylate ionomer; the reactive plasticizer is composed of one or more, mixed in any ratio, of allyl acetate, allyl propionate, allyl butyrate, disubstituted allyl carbamate, disubstituted allyl aminoacetate, disubstituted allyl aminopropionate, disubstituted allyl aminobutyrate, and allyl diglycol carbonate resin; and the sulfur-containing compound is selected from the group consisting of thiocarbamate, thioaminoacetate, thioaminopropionate, thioaminobutyrate, dimethyl acrylate thiodiethanol diester, 4,4'-2-thiodibenzenedithiol dimethacrylate, 2,2'-mercaptoethyl sulfide dimethacrylate, thiodiethanol dimethacrylate, phenylthiophenol methacrylate, and phenylthiophenol methacrylate. wherein the photovoltaic encapsulating material matrix resin is a transparent polymer material, and the polymer material is formed by one or more, mixed in any ratio, of ethylene-vinyl acetate copolymer, ethylene-α-olefin copolymer, ethylene-methyl methacrylate copolymer and ethylene-methacrylate ionomer; the reactive plasticizer is composed of one or more, mixed in any ratio, of allyl acetate, allyl propionate, allyl butyrate, disubstituted allyl carbamate, disubstituted allyl aminoacetate, disubstituted allyl aminopropionate, disubstituted allyl aminobutyrate, and allyl diglycol carbonate resin; and the sulfur-containing compound is selected from the group consisting of thiocarbamate, thioaminoacetate, thioaminopropionate, thioaminobutyrate, dimethyl acrylate thiodiethanol diester, 4,4'-2-thiodibenzenedithiol dimethacrylate, 2,2'-mercaptoethyl sulfide dimethacrylate, thiodiethanol dimethacrylate, phenylthiophenol methacrylate, and phenylthiophenol methacrylate.
An apparatus for determining the roll angle α of a motorcycle or like vehicle, said apparatus comprising: - a first gyro sensor that produces a signal representing the roll rate of the vehicle, - a second gyro sensor that produces a signal representing the yaw rate ω v of the vehicle, - first means configured to determine a first intermediate value for the roll angle of the vehicle by integrating the measured roll rate, - second means configured to determine a second intermediate value for the roll angle of the vehicle from the measured yaw rate ω v and the measured vehicle velocity v, and - third means configured to determine an output value for the roll angle α by combining said first intermediate value and said second intermediate value, characterized in that, the third means is configured to use the high frequency part of the first intermediate value and to use the low frequency part of the second intermediate value for determining the output value for the roll angle α, and wherein the first gyro sensor and second gyro sensor are Micro-Electro-Mechanical Systems. - a first gyro sensor that produces a signal representing the roll rate of the vehicle, - a second gyro sensor that produces a signal representing the yaw rate ω v of the vehicle, - first means configured to determine a first intermediate value for the roll angle of the vehicle by integrating the measured roll rate, - second means configured to determine a second intermediate value for the roll angle of the vehicle from the measured yaw rate ω v and the measured vehicle velocity v, and - third means configured to determine an output value for the roll angle α by combining said first intermediate value and said second intermediate value,
A direct-current power supply apparatus, comprising: - a reactor; - a first rectification circuit including first input terminals (13a,13b) configured to be connected to an alternating-current power supply via the reactor, four first diodes (D1,D2,D3,D4) being bridge-connected to one another to rectify a voltage applied to the first input terminals (13a,13b) and first positive side and first negative side output terminals (13c,13d) configured to output a voltage rectified by the first diodes (D1,D2,D3,D4), the first positive side output terminal being connectable to one end of a load; - a second rectification circuit including second input terminals (16a,16b) configured to be connected to the alternating-current power supply via the reactor, four second diodes (D1,D2,D3,D4) being bridge-connected to one another to rectify a voltage applied to the second input terminals (16a,16b), and second positive side and second negative side output terminals (16c,16d) configured to output a voltage rectified by the second diodes (D1,D2,D3,D4), the second negative side output terminal being connectable to the other end of the load; - a switch element being connected between the second positive side output terminal of the second rectification circuit and the first negative side output terminal of the first rectification circuit; and - a control unit configured to turn on the switch element temporarily after the voltage of the alternating-current power supply has passed zero-crossing point, thereby forming a short-circuit path for power factor improvement. - a reactor; - a first rectification circuit including first input terminals (13a,13b) configured to be connected to an alternating-current power supply via the reactor, four first diodes (D1,D2,D3,D4) being bridge-connected to one another to rectify a voltage applied to the first input terminals (13a,13b) and first positive side and first negative side output terminals (13c,13d) configured to output a voltage rectified by the first diodes (D1,D2,D3,D4), the first positive side output terminal being connectable to one end of a load; - a second rectification circuit including second input terminals (16a,16b) configured to be connected to the alternating-current power supply via the reactor, four second diodes (D1,D2,D3,D4) being bridge-connected to one another to rectify a voltage applied to the second input terminals (16a,16b), and second positive side and second negative side output terminals (16c,16d) configured to output a voltage rectified by the second diodes (D1,D2,D3,D4), the second negative side output terminal being connectable to the other end of the load; - a switch element being connected between the second positive side output terminal of the second rectification circuit and the first negative side output terminal of the first rectification circuit; and - a control unit configured to turn on the switch element temporarily after the voltage of the alternating-current power supply has passed zero-crossing point, thereby forming a short-circuit path for power factor improvement.