mhurhangee/ep-ind-claims huggingface dataset:
A fluidic device for analyzing a fluid sample, the fluidic device comprising: a cartridge device configured to receive the fluid sample, the cartridge device including: a fluidic chamber; at least one micro fluidic channel in fluid communication with the fluidic chamber; a venting port configured to apply a pneumatic force to the fluidic chamber; and a controller configured to control the pneumatic force applied to the fluidic chamber via the venting port, wherein the cartridge device is received by the fluidic device in a vertical or tilted position such that at least a portion of fluid inside the fluidic chamber is pulled by gravity in a direction away from the venting port or towards a bottom of the fluidic chamber, characterized in that the cartridge device further includes at least one passive valve located within the at least one micro fluidic channel and configured to allow or stop fluid flow through the at least one micro fluidic channel based on a pressure difference. a fluidic chamber; at least one micro fluidic channel in fluid communication with the fluidic chamber; a venting port configured to apply a pneumatic force to the fluidic chamber; and a controller configured to control the pneumatic force applied to the fluidic chamber via the venting port, wherein the cartridge device is received by the fluidic device in a vertical or tilted position such that at least a portion of fluid inside the fluidic chamber is pulled by gravity in a direction away from the venting port or towards a bottom of the fluidic chamber, characterized in that the cartridge device further includes at least one passive valve located within the at least one micro fluidic channel and configured to allow or stop fluid flow through the at least one micro fluidic channel based on a pressure difference.
A wafer shipper comprising a cassette and a cassette container and configured for holding thin wafers, the cassette comprising a pair of sidewalls defining slots for holding wafers, a pair of endwalls (93, 94) extending between the sidewalls, one of the endwalls configured as an H-bar machine interface, and pair of elongate feet extending downwardly from the respective sidewalls; the cassette container comprising a bottom base portion for receiving the cassette therein, and a top cover attachable to bottom base portion, each of the top cover and base portion having four walls and a common wall spanning between the four walls, each of the top cover and base portion having a juncture for closing the top cover to the base portion, the cassette container further comprising an upper cushion attachable to the top cover and a lower cushion that seats in a receiving region in the bottom base portion; wherein the upper cushion has a pair of rails that attach to the top cover and that support a plurality of wafer engaging segments having V-shaped grooves for receiving the periphery of the wafers, the V-shaped grooves defining wafer slots, characterized in that the upper cushion having a plurality of prongs each positioned intermediate the slots defined by the V-shaped grooves and extending radially inward for placement in between wafers secured by the wafer engaging segments, wherein each of the prongs extends radially inward from the periphery of the wafer when the top cover is fully seated on the bottom base portion, a distance at least twice the maximum depth of the V-shaped grooves.
An apparatus comprising: means for receiving a first request for a location of a user equipment from a home location register; means for receiving a message from the home location register comprising an indication that the user equipment is not controlled by the apparatus; means for transmitting a second request for the location of the user equipment to the home location register; and means for receiving a response for the second request from the home location register. means for receiving a first request for a location of a user equipment from a home location register; means for receiving a message from the home location register comprising an indication that the user equipment is not controlled by the apparatus; means for transmitting a second request for the location of the user equipment to the home location register; and means for receiving a response for the second request from the home location register.
A transponder communication system for use in an electronic toll collection system for programming a transponder located in a moving vehicle travelling in a roadway, the transponder having a memory, the system comprising: a first antenna having a first coverage area that includes at least a portion of the roadway, and a second antenna having a second coverage area that includes at least a portion of the roadway, the second coverage area being different to the first coverage area, each for transmitting a programming signal and receiving a response signal from the transponder to indicate a successful programming of the transponder; and a control device connected to the antennas, the control device being configured to direct, in a normal mode, the first antenna to transmit the programming signal over the first coverage area, the control device being configured to subsequently wait for the response signal and determine whether the transponder has updated its memory using the programming signal, characterized in that the control device is further configured to direct, in an enhanced mode, the second antenna to transmit the programming signal over the second coverage area if the control device determines that the transponder failed to update its memory. a first antenna having a first coverage area that includes at least a portion of the roadway, and a second antenna having a second coverage area that includes at least a portion of the roadway, the second coverage area being different to the first coverage area, each for transmitting a programming signal and receiving a response signal from the transponder to indicate a successful programming of the transponder; and a control device connected to the antennas, the control device being configured to direct, in a normal mode, the first antenna to transmit the programming signal over the first coverage area, the control device being configured to subsequently wait for the response signal and determine whether the transponder has updated its memory using the programming signal, characterized in that the control device is further configured to direct, in an enhanced mode, the second antenna to transmit the programming signal over the second coverage area if the control device determines that the transponder failed to update its memory.
A silicone adhesive composition, comprising an addition reaction-curable silicone, a compound having at least two unsaturated hydrocarbon groups and two (poly) oxyalkylene residues in one molecule, and an ionic liquid containing no lithium, wherein the amount of component is 0.27 to 3.3 parts by mass and the amount of component is 0.003 to 1.5 parts by mass, relative to 100 parts by mass of the addition curable silicone, and wherein said two (poly)oxyalkylene residues are each represented by - (C 2 H 4 O) m -(C 3 H 6 O) n - wherein m is a real number of 0 to 20, n is a real number of 0 to 10, m+n is 1 to 30, and (C 2 H 4 O) and (C 3 H 6 O)may be bonded in random order. an addition reaction-curable silicone, a compound having at least two unsaturated hydrocarbon groups and two (poly) oxyalkylene residues in one molecule, and an ionic liquid containing no lithium,
A method for preparing a sample for FFPE, comprising: providing a defined concentration of cellular material comprising a known amount of test cells and a known amount of background cells in a mixture, wherein the test cells include at least one pre-determined detectable genetic mutation and the background cells do not include said at least one pre-determined detectable genetic mutation; mixing the cellular material with a gelling polymer, creating a gel/cellular material; adding the gel/cellular material to a mold with a defined shape until the gelling polymer solidifies; and slicing the solidified material to a uniform and defined size wherein the ratio of test cells to background cells is maintained in the slice. providing a defined concentration of cellular material comprising a known amount of test cells and a known amount of background cells in a mixture, wherein the test cells include at least one pre-determined detectable genetic mutation and the background cells do not include said at least one pre-determined detectable genetic mutation; mixing the cellular material with a gelling polymer, creating a gel/cellular material; adding the gel/cellular material to a mold with a defined shape until the gelling polymer solidifies; and slicing the solidified material to a uniform and defined size wherein the ratio of test cells to background cells is maintained in the slice.
A process for converting glycerol to acetol with high selectivity, comprising the steps of: combining a glycerol-containing feedstock with less than 50% by weight water with a catalyst that is capable of dehydrating glycerol to form a reaction mixture; heating the reaction mixture to a temperature ranging from 170°C to 270°C over a reaction time of up to 24 hours at a pressure ranging from 0.2 to 25 bar; and using hydrogen as a stripping gas to strip the acetol from solution. combining a glycerol-containing feedstock with less than 50% by weight water with a catalyst that is capable of dehydrating glycerol to form a reaction mixture; heating the reaction mixture to a temperature ranging from 170°C to 270°C over a reaction time of up to 24 hours at a pressure ranging from 0.2 to 25 bar; and using hydrogen as a stripping gas to strip the acetol from solution.
Contactless integrated circuit comprising: modulation and demodulation circuits (RRM, UHRC) configured to connect to an HF antenna circuit for transmitting and receiving HF signals by inductive coupling in a reader mode, modulation and demodulation circuits (URM, UHRC) configured to connect to a UHF antenna (UA, A1) for transmitting and receiving UHF signals by electric coupling in a reader mode, a data processing circuit connected to the modulation and demodulation circuits, and configured to provide data to be transmitted to the modulation circuits, and to process received signals, transmitted by the demodulation circuits, characterized in that the demodulation circuits comprise a common demodulation circuit (UHR5, UHR6) for processing signals (US, RS) received equally by the UHF antenna and by the HF antenna circuit, the common demodulation circuit comprising: a first frequency mixer circuit for mixing the received UHF signals with a first oscillator signal at a first frequency, a frequency mixer circuit for mixing the received HF signals with a second oscillator signal at a second frequency, and a signal decoding circuit (DCD, DCD1) comprising an input connected both to an output of the first mixer circuit and to an output of the second mixer circuit. modulation and demodulation circuits (RRM, UHRC) configured to connect to an HF antenna circuit for transmitting and receiving HF signals by inductive coupling in a reader mode, modulation and demodulation circuits (URM, UHRC) configured to connect to a UHF antenna (UA, A1) for transmitting and receiving UHF signals by electric coupling in a reader mode, a data processing circuit connected to the modulation and demodulation circuits, and configured to provide data to be transmitted to the modulation circuits, and to process received signals, transmitted by the demodulation circuits, characterized in that the demodulation circuits comprise a common demodulation circuit (UHR5, UHR6) for processing signals (US, RS) received equally by the UHF antenna and by the HF antenna circuit, the common demodulation circuit comprising: a first frequency mixer circuit for mixing the received UHF signals with a first oscillator signal at a first frequency, a frequency mixer circuit for mixing the received HF signals with a second oscillator signal at a second frequency, and a signal decoding circuit (DCD, DCD1) comprising an input connected both to an output of the first mixer circuit and to an output of the second mixer circuit. a first frequency mixer circuit for mixing the received UHF signals with a first oscillator signal at a first frequency, a frequency mixer circuit for mixing the received HF signals with a second oscillator signal at a second frequency, and a signal decoding circuit (DCD, DCD1) comprising an input connected both to an output of the first mixer circuit and to an output of the second mixer circuit.
A composition comprising: (a) 20 to 85 wt% of a thermally conductive silver component comprising silver nano-particles having a particle diameter of 5 to 500 nanometers; (b) a polyorganosilsesquioxane component selected from the group consisting of (i) 0.5 to 12 wt% of a polyorganosilsesquioxane fine powder, (ii) 0.5 to 8 wt% of a copolymer powder containing an interlacing polymer network of a polyorganosilsesquioxane and a polydiorganosiloxane, and (iii) 0.5 to 12 wt% of a combination of said polyorganosilsesquioxane fine powder and said copolymer powder; and (c) 3 to 12 wt% of a total solvent content in (i) one or more solvents, (ii) a vehicle containing 3 to 12 wt% of one or more solvents, or (iii) a combination thereof. (a) 20 to 85 wt% of a thermally conductive silver component comprising silver nano-particles having a particle diameter of 5 to 500 nanometers; (b) a polyorganosilsesquioxane component selected from the group consisting of (i) 0.5 to 12 wt% of a polyorganosilsesquioxane fine powder, (ii) 0.5 to 8 wt% of a copolymer powder containing an interlacing polymer network of a polyorganosilsesquioxane and a polydiorganosiloxane, and (iii) 0.5 to 12 wt% of a combination of said polyorganosilsesquioxane fine powder and said copolymer powder; and (i) 0.5 to 12 wt% of a polyorganosilsesquioxane fine powder, (ii) 0.5 to 8 wt% of a copolymer powder containing an interlacing polymer network of a polyorganosilsesquioxane and a polydiorganosiloxane, and (iii) 0.5 to 12 wt% of a combination of said polyorganosilsesquioxane fine powder and said copolymer powder; and (c) 3 to 12 wt% of a total solvent content in (i) one or more solvents, (ii) a vehicle containing 3 to 12 wt% of one or more solvents, or (iii) a combination thereof.
A composition comprising at least two antibodies, antigen-binding fragment(s), or combinations thereof, wherein at least one first antibody, antigen-binding fragment, or combination thereof recognizes a sequence located within the 256-412 amino acid sequence, or more preferably within the 300-380 amino acid sequence in the keratin 7 moiety of the heterotypic complex of keratin 7 with keratin 19 and/or fragment(s) thereof, and at least one second antibody, antigen-binding fragment, or combination thereof recognizes a sequence located within the 244-400 amino acid sequence, or more preferably within the 311-375 amino acid sequence in the keratin 19 moiety of the heterotypic complex of keratin 7 with keratin 19 and/or fragment(s) thereof, characterized in that said first and second antibodies, antigen-binding fragment(s), or combination thereof are capable of binding specifically and simultaneously to heterotypic complex of keratin 7 with keratin 19 and/or fragment(s) thereof.
A system for ammonia combustion and exhaust gas treatment, the system comprising: an ammonia-fuelled internal combustion engine and a storage vessel containing ammonia therefor; and an exhaust system comprising an intake for receiving an exhaust gas from the combustion engine, an upstream injector for adding hydrogen gas to the exhaust gas and a downstream catalyst article, wherein the downstream catalyst article comprises a three-way catalyst composition comprising (i) a platinum group metal component comprising one or more of Pt, Pd and Rh; (ii) a support material, preferably alumina; and (iii) an oxygen storage component. an ammonia-fuelled internal combustion engine and a storage vessel containing ammonia therefor; and an exhaust system comprising an intake for receiving an exhaust gas from the combustion engine, an upstream injector for adding hydrogen gas to the exhaust gas and a downstream catalyst article, wherein the downstream catalyst article comprises a three-way catalyst composition comprising (i) a platinum group metal component comprising one or more of Pt, Pd and Rh; (ii) a support material, preferably alumina; and (iii) an oxygen storage component.
An electronic cigarette, comprising a control chip, characterized in that the control chip comprises: a driving module configured to output a current to drive the electronic cigarette to work; an open-circuit detecting module electrically connected to the driving module, and configured to sample and detect the current, and send out an open-circuit enable signal when a sampled current is less than an internal reference current; a short-circuit detecting module electrically connected to the driving module, and configured to sample and detect the current, and send out a short-circuit enable signal when the sampled current is greater than the internal reference current; and a control module electrically connected to the driving module, and configured to receive the open-circuit enable signal and the short-circuit enable signal, and send a shutdown signal to the driving module. a driving module configured to output a current to drive the electronic cigarette to work; an open-circuit detecting module electrically connected to the driving module, and configured to sample and detect the current, and send out an open-circuit enable signal when a sampled current is less than an internal reference current; a short-circuit detecting module electrically connected to the driving module, and configured to sample and detect the current, and send out a short-circuit enable signal when the sampled current is greater than the internal reference current; and a control module electrically connected to the driving module, and configured to receive the open-circuit enable signal and the short-circuit enable signal, and send a shutdown signal to the driving module.
A method for preparing retort-packaged cooked rice for inhibiting blood glucose elevation, the method comprising the steps of: 1) washing raw rice, soaking the washed rice in water, dehydrating the soaked rice, and filling the dehydrated rice into a container; 2) heat-sterilizing the rice filled into the container; 3) supplying cooking water, which contains indigestible maltodextrin in an amount of 5.0-8.0 g based on 210 g of the cooked rice, into the rice-filled container, and cooking the rice with steam; and 4) sealing the cooked rice; and 5) subjecting the cooked rice to a retort process, wherein the retort process in step 5) is performed by sterilizing the cooked rice at a temperature of 100 to 110 °C for 3-5 minutes, and then sterilizing the cooked rice at a temperature of 120 to 130 °C for 5-15 minutes. 1) washing raw rice, soaking the washed rice in water, dehydrating the soaked rice, and filling the dehydrated rice into a container; 2) heat-sterilizing the rice filled into the container; 3) supplying cooking water, which contains indigestible maltodextrin in an amount of 5.0-8.0 g based on 210 g of the cooked rice, into the rice-filled container, and cooking the rice with steam; and 4) sealing the cooked rice; and 5) subjecting the cooked rice to a retort process, wherein the retort process in step 5) is performed by sterilizing the cooked rice at a temperature of 100 to 110 °C for 3-5 minutes, and then sterilizing the cooked rice at a temperature of 120 to 130 °C for 5-15 minutes.
An electronic product comprising an optical module heat dissipation structure, and an enclosure the enclosure comprising an upper housing and a lower housing, the optical module heat dissipation structure comprising an optical module, an elastic component, a fixed wall extending perpendicularly from an inner surface of the lower housing towards the inside of the enclosure, and a heat dissipation wall extending perpendicularly from an inner surface of the upper housing towards the inside of the enclosure, wherein the fixed wall and the heat dissipation wall are both connected to the enclosure, the optical module is disposed between the fixed wall and the heat dissipation wall, the elastic component elastically abuts between the fixed wall and the optical module, wherein a joint portion for implementing signal transmission with another external electronic product is provided at a front end of the optical module; wherein the fixed wall extends at a front end of the optical module parallel to the front end of the optical module and the joint portion penetrates the fixed wall to extend out of the enclosure; characterized in that the heat dissipation wall extends at a back end of the optical module parallel to the back end of the optical module; a first lamination portion is provided at the back end of the optical module; and a heat conducting material is coated between the first lamination portion and the heat dissipation wall, wherein elasticity of the elastic component makes the heat conducting material tightly cling to the heat dissipation wall, to improve the heat dissipation efficiency of the optical module heat dissipation structure;.