mhurhangee/ep-ind-claims huggingface dataset:
A fluidic control device, in particular for a magnetocaloric machine comprising at least one fluidic distributor connected to a fluidic circuit, said at least one fluidic distributor comprising a movable slide disposed to be displaced between two distribution positions, said control device comprising a movable cam disposed to cooperate with a follower member, said cam being coupled to an actuator, and said follower member being coupled to the slide of said distributor, said cam comprising a cam profile provided with at least a first section defining a first distribution position, with a second section defining a second distribution position, and with a transition zone connecting said first section to said second section, the control device being characterized in that said cam is a double-acting cam disposed to displace said follower member in reciprocating translation in one direction and in the opposite direction respectively corresponding to said first distribution position and to said second distribution position of said distributor, and in that said follower member comprises a first guide element disposed to move freely in said cam, and a second guide element disposed to move freely in a slideway which is fixed with respect to said at least one distributor, in order to guide said follower member in reciprocating translation between said two distribution positions.
An ultrasonic medicine patch comprising, from bottom to top, an adhesive layer as the base layer, a laminate sequentially containing a medicine layer immediately adjacent to the adhesive layer, an ultrasonic transducer generating an ultrasonic signal, a driving unit providing an electric signal and driving the ultrasonic transducer to generate the ultrasonic signal, and a coating layer that covers the exterior surface of the patch and covers the medicine layer, the ultrasonic transducer and the driving unit, wherein the driving unit comprises an ultrasonic driving circuit electrically connected with a power supply placed and arranged inside the coating layer; said patch being characterized in that the power supply is integrated with the ultrasonic driving circuit, and disposed on the back of the ultrasonic transducer; and in that the power supply is electrically connected to the ultrasonic transducer and the ultrasonic driving circuit, the power supply being switched off by an on/off film, wherein one end of the film is exposed to the outside of the coating layer for being withdrawn in operation, so as to switch on the power supply to operate the patch.
A communications plug, comprising a mounting substrate; a plurality of pairs of output terminals (32a, 32b; 34a, 34b; 36a, 36b; 38a, 38b), wherein first, second and fourth pairs of the output terminals (32a, 32b; 34a, 34b; 38a, 3b) are arranged in immediately adjacent relationship, and wherein a third pair of output terminals (36a, 36b) includes output terminals that are separated from each other such that a first output terminal of the third pair (36a, 36b) is positioned between the first and second pairs of output terminals (32a, 32b; 34a, 34b), and such that a second output terminal of the third pair (36a, 36b) is positioned between the first and fourth pairs of output terminals (32a, 32b; 38a, 38b); and first, second, third and fourth pairs of conductors (40a, 40b; 42a, 42b; 44a, 44b; 46a, 46b) that engage the mounting substrate, each of which is attached for electrical communication with a respective one of the output terminals (32a, 32b; 34a, 34b; 36a, 36b; 38a, 38b), characterized in that: the third pair of conductors (44a, 44b) has at least two locations (45, 52) in which the conductors of the pair (44a, 44b) cross each other, and wherein the third pair of conductors (44a, 44b) is arranged such that, between the crossover locations (45, 52), the third pair of conductors (44a, 44b) forms an expanded loop that brings first and second segments (50a, 50b) of the third pair of conductors (44a, 44b) into closer proximity to the second and fourth pairs of conductors (42a, 42b; 46a, 46b), respectively, than to the first pair of conductors (40a, 40b). the third pair of conductors (44a, 44b) has at least two locations (45, 52) in which the conductors of the pair (44a, 44b) cross each other, and wherein the third pair of conductors (44a, 44b) is arranged such that, between the crossover locations (45, 52), the third pair of conductors (44a, 44b) forms an expanded loop that brings first and second segments (50a, 50b) of the third pair of conductors (44a, 44b) into closer proximity to the second and fourth pairs of conductors (42a, 42b; 46a, 46b), respectively, than to the first pair of conductors (40a, 40b).
A colored hair ornament comprising: a light source; and a plurality of light-transmissive filaments (10, 15, 130); wherein each light-transmissive filament has a proximal end (40, 132), a distal end (50, 134) and a side wall, wherein the proximal end of each light-transmissive filament is arranged to receive light from the light source; wherein one or more light-transmissive filaments of the plurality of light-transmissive filaments comprise a first coating with a first composition comprising one or more cationic polymers to a first portion of the one or more light-transmissive filaments; and wherein the one or more light-transmissive filaments comprise a second coating with a second composition comprising one or more anionic polymers to a second portion of the one or more light-transmissive filaments; wherein the first and the second portions of the one or more light-transmissive filaments have one or more common areas; wherein the first coating is underneath the second coating; optionally wherein the one or more light-transmissive filaments comprise a plurality of the first and second coatings with the first composition and the second composition in that order to create a plurality of polymeric layers; wherein the cationic polymer is a cationic colored polymer; and wherein the anionic polymer is an anionic colored polymer. a light source; and a plurality of light-transmissive filaments (10, 15, 130); wherein each light-transmissive filament has a proximal end (40, 132), a distal end (50, 134) and a side wall, wherein the proximal end of each light-transmissive filament is arranged to receive light from the light source; wherein one or more light-transmissive filaments of the plurality of light-transmissive filaments comprise a first coating with a first composition comprising one or more cationic polymers to a first portion of the one or more light-transmissive filaments; and wherein the one or more light-transmissive filaments comprise a second coating with a second composition comprising one or more anionic polymers to a second portion of the one or more light-transmissive filaments; wherein the first and the second portions of the one or more light-transmissive filaments have one or more common areas; wherein the first coating is underneath the second coating; optionally wherein the one or more light-transmissive filaments comprise a plurality of the first and second coatings with the first composition and the second composition in that order to create a plurality of polymeric layers; wherein the cationic polymer is a cationic colored polymer; and wherein the anionic polymer is an anionic colored polymer.
A process for preparing a molybdenum sulfide-based catalyst comprising drying a precipitated molybdenum sulfide-based catalyst precursor containing at least molybdenum and sulfur, under conditions such that a particulate catalyst precursor containing from 12 to 15 percent by weight water is formed; and then thermally auto-reducing the particulate catalyst precursor at a temperature ranging from 350 °C to 550 °C to form a catalyst; wherein the precipitated catalyst precursor is dried by either pressure filtration followed by vacuum drying, or by preparing a suspension of the precipitated catalyst precursor and then spray-drying the suspension; and wherein said vacuum drying includes exposing the precipitated catalyst precursor to air, with or without nitrogen, such that the precipitated catalyst precursor is passivated; wherein the particulate catalyst precursor is passivated either during the drying step or after the drying step, such that the particulate catalyst precursor prior to being auto-reduced self-heats to no more than 100 °C upon exposure to air; wherein if the passivation of the particulate catalyst precursor takes place after the drying step, passivation is carried out by means of exposure to dilute air having a concentration of > 0.1 vol% and < 20 vol% oxygen. and then thermally auto-reducing the particulate catalyst precursor at a temperature ranging from 350 °C to 550 °C to form a catalyst; wherein the precipitated catalyst precursor is dried by either pressure filtration followed by vacuum drying, or by preparing a suspension of the precipitated catalyst precursor and then spray-drying the suspension; and wherein said vacuum drying includes exposing the precipitated catalyst precursor to air, with or without nitrogen, such that the precipitated catalyst precursor is passivated; wherein the particulate catalyst precursor is passivated either during the drying step or after the drying step, such that the particulate catalyst precursor prior to being auto-reduced self-heats to no more than 100 °C upon exposure to air; wherein if the passivation of the particulate catalyst precursor takes place after the drying step, passivation is carried out by means of exposure to dilute air having a concentration of > 0.1 vol% and < 20 vol% oxygen.
A method for determining a degree of an oxidative treatment of an object, the method comprising: incorporating into the oxidative treatment an indicator, the indicator comprising a polymer, said indicator being suitable to discoloration based on an oxidation of the polymer by a process condition of the oxidative treatment oxidizing the polymer; subjecting the object and the indicator to the oxidative treatment, a discoloration of the indicator occurring based on an oxidation of the polymer by a process condition of the oxidative treatment oxidizing the polymer; and measuring the discoloration of the indicator against a threshold color value to determine the degree of the oxidative treatment, wherein the object comprises a medical device incorporating into the oxidative treatment an indicator, the indicator comprising a polymer, said indicator being suitable to discoloration based on an oxidation of the polymer by a process condition of the oxidative treatment oxidizing the polymer; subjecting the object and the indicator to the oxidative treatment, a discoloration of the indicator occurring based on an oxidation of the polymer by a process condition of the oxidative treatment oxidizing the polymer; and measuring the discoloration of the indicator against a threshold color value to determine the degree of the oxidative treatment, wherein the object comprises a medical device
A method of handling interference caused by inter-modulation in a network node for wireless communication capable of frequency division duplex communication with a set of stations for wireless communication, wherein the stations are wireless transceiver devices and communication from the network node to any of the stations is considered to be downlink communication performed on a downlink carrier in a downlink carrier frequency band and communication from any of the stations is considered to be uplink communication performed on an uplink carrier in an uplink carrier frequency band, the method comprising detecting an interference level on the uplink carrier frequency band for a subset of stations of the set of stations; determining whether the interference level indicates probable inter-modulation interference, wherein, if the interference level indicates probable inter-modulation interference, scheduling an uplink transmission grant for at least one of the stations of the subset of stations, wherein the uplink transmission grant is valid for a first transmission time interval; transmitting the uplink transmission grant to the at least one station of the subset of stations; assigning a transmit level on the downlink carrier frequency band at the first transmission time interval by reducing transmission signal power such that inter-modulation interference is reduced on the uplink carrier frequency band at the first transmission time interval; and receiving an uplink transmission from the at least one station of the subset of stations at the first transmission time interval. scheduling an uplink transmission grant for at least one of the stations of the subset of stations, wherein the uplink transmission grant is valid for a first transmission time interval; transmitting the uplink transmission grant to the at least one station of the subset of stations; assigning a transmit level on the downlink carrier frequency band at the first transmission time interval by reducing transmission signal power such that inter-modulation interference is reduced on the uplink carrier frequency band at the first transmission time interval; and receiving an uplink transmission from the at least one station of the subset of stations at the first transmission time interval.
LED lighting device (1; 21; 31) comprising - an LED carrier which is fitted with at least one LED on its front side and is secured to a support by its rear side, - the front side of the LED carrier being covered in an arched manner by an electrically insulating, light-permeable and diffusely scattering LED cover (12; 22; 32) and - the LED cover (12; 22; 32) being covered in an arched manner by a protective cover sitting on the support, characterized in that - the LED cover (22; 32) also forms an intermediate layer between the rear side of the LED carrier and the support. - an LED carrier which is fitted with at least one LED on its front side and is secured to a support by its rear side, - the front side of the LED carrier being covered in an arched manner by an electrically insulating, light-permeable and diffusely scattering LED cover (12; 22; 32) and - the LED cover (12; 22; 32) being covered in an arched manner by a protective cover sitting on the support, - the LED cover (22; 32) also forms an intermediate layer between the rear side of the LED carrier and the support.
Method for producing a hydrocarbon and hydrogen-containing gas mixture from plastics, comprising the following steps: A) pyrolysis of plastics to a pyrolysis gas mixture, B) hot gas filtration for remove of solid particles, C) catalytic cracking to produce the hydrocarbon- and hydrogen-containing gas mixture, D) gas scrubbing of the hydrocarbon- and hydrogen-containing gas mixture, wherein between step A) and B) or between step B) and C) a further step A2) is carried out: A2) catalytic cracking of the pyrolysis gas mixture, wherein water vapor and air or oxygen are supplied during the catalytic cracking comprising steps C) and A2). A) pyrolysis of plastics to a pyrolysis gas mixture, B) hot gas filtration for remove of solid particles, C) catalytic cracking to produce the hydrocarbon- and hydrogen-containing gas mixture, D) gas scrubbing of the hydrocarbon- and hydrogen-containing gas mixture, wherein between step A) and B) or between step B) and C) a further step A2) is carried out: A2) catalytic cracking of the pyrolysis gas mixture, wherein water vapor and air or oxygen are supplied during the catalytic cracking comprising steps C) and A2).
A method for searching for a modification site of a peptide molecule, the method comprising: calculating, by a computer, a second steric structure of the peptide molecule by using data of a first steric structure of the peptide molecule, the first steric structure being a steric structure of the peptide molecule in a complex structure of a target molecule and the peptide molecule, the second steric structure being a stable steric structure of the peptide molecule in a state where a steric configuration of a main chain of the peptide molecule in the first steric structure is fixed; and comparing data of the second steric structure with the data of the first steric structure in order to search for a side chain having a difference in steric configuration between the two steric structures, and determining the side chain as the modification site, the method further comprising: calculating the second steric structure by performing a ground state search using an annealing method for an Ising model converted based on a restriction condition of a side chain of the peptide molecule to calculate a minimum energy of the Ising model so that the calculation of the second steric structure is reduced to a combinatorial optimization problem of steric configurations of the side chains. calculating, by a computer, a second steric structure of the peptide molecule by using data of a first steric structure of the peptide molecule, the first steric structure being a steric structure of the peptide molecule in a complex structure of a target molecule and the peptide molecule, the second steric structure being a stable steric structure of the peptide molecule in a state where a steric configuration of a main chain of the peptide molecule in the first steric structure is fixed; and comparing data of the second steric structure with the data of the first steric structure in order to search for a side chain having a difference in steric configuration between the two steric structures, and determining the side chain as the modification site, the method further comprising: calculating the second steric structure by performing a ground state search using an annealing method for an Ising model converted based on a restriction condition of a side chain of the peptide molecule to calculate a minimum energy of the Ising model so that the calculation of the second steric structure is reduced to a combinatorial optimization problem of steric configurations of the side chains.
Method for regulating a galvanically isolated DC-DC voltage converter, wherein the DC-DC voltage converter comprises a full bridge for converting a DC input voltage (UinDC) into an AC input voltage (UinAC), a transformer for transforming the AC input voltage (UinAC) into an AC output voltage (UoutAC), a rectifier for converting the AC output voltage (UoutAC) into a DC output voltage (UoutDC), said method having the steps of: ascertaining the duty cycle of the full bridge; comparing the ascertained duty cycle with a duty cycle threshold value (Dth); determining an adapted value (D_ad) of the duty cycle depending on the comparison; calculating a DC input voltage (UinDCcalc) depending on an input current (I_in), the DC output voltage (UoutDC), a transformation ratio of the transformer and the adapted value (D_ad) of the duty cycle of the full bridge, wherein the ascertained duty cycle is determined as the adapted value (D_ad) of the duty cycle if the ascertained duty cycle is greater than the duty cycle threshold value (Dth) and the duty cycle threshold value (Dth) is determined as the adapted value (D_ad) of the duty cycle if the ascertained duty cycle is lower than the duty cycle threshold value (Dth). wherein the DC-DC voltage converter comprises a full bridge for converting a DC input voltage (UinDC) into an AC input voltage (UinAC), a transformer for transforming the AC input voltage (UinAC) into an AC output voltage (UoutAC), a rectifier for converting the AC output voltage (UoutAC) into a DC output voltage (UoutDC), said method having the steps of: ascertaining the duty cycle of the full bridge; comparing the ascertained duty cycle with a duty cycle threshold value (Dth); determining an adapted value (D_ad) of the duty cycle depending on the comparison; calculating a DC input voltage (UinDCcalc) depending on an input current (I_in), the DC output voltage (UoutDC), a transformation ratio of the transformer and the adapted value (D_ad) of the duty cycle of the full bridge, wherein the ascertained duty cycle is determined as the adapted value (D_ad) of the duty cycle if the ascertained duty cycle is greater than the duty cycle threshold value (Dth) and the duty cycle threshold value (Dth) is determined as the adapted value (D_ad) of the duty cycle if the ascertained duty cycle is lower than the duty cycle threshold value (Dth). ascertaining the duty cycle of the full bridge; comparing the ascertained duty cycle with a duty cycle threshold value (Dth); determining an adapted value (D_ad) of the duty cycle depending on the comparison; calculating a DC input voltage (UinDCcalc) depending on an input current (I_in), the DC output voltage (UoutDC), a transformation ratio of the transformer and the adapted value (D_ad) of the duty cycle of the full bridge, wherein the ascertained duty cycle is determined as the adapted value (D_ad) of the duty cycle if the ascertained duty cycle is greater than the duty cycle threshold value (Dth) and the duty cycle threshold value (Dth) is determined as the adapted value (D_ad) of the duty cycle if the ascertained duty cycle is lower than the duty cycle threshold value (Dth).
A fiber optic panel assembly, comprising: a ceiling (706, 710), a bottom cover, and two opposing sides (712, 714) defining an interior opening therein; and a sliding tray disposed in the interior opening, and a mounting bracket disposed in the interior opening, wherein selected fiber optic modules are engaged with and vertically disposed in the sliding tray characterized in that non-selected fiber optic modules are engaged with the mounting bracket, wherein the sliding tray is configured to pull out the selected fiber optic modules while maintaining the non-selected fiber optic modules unmoved, wherein every other fiber optic module (350a, 350b) is staggered in a depth direction with respect to an adjacent fiber optic module (350b, 350a) disposed in the interior opening. a ceiling (706, 710), a bottom cover, and two opposing sides (712, 714) defining an interior opening therein; and a sliding tray disposed in the interior opening, and a mounting bracket disposed in the interior opening, wherein selected fiber optic modules are engaged with and vertically disposed in the sliding tray characterized in that non-selected fiber optic modules are engaged with the mounting bracket, wherein the sliding tray is configured to pull out the selected fiber optic modules while maintaining the non-selected fiber optic modules unmoved, wherein every other fiber optic module (350a, 350b) is staggered in a depth direction with respect to an adjacent fiber optic module (350b, 350a) disposed in the interior opening.