See how a double-pipe circulation system discharges melt through a small-diameter inner pipe, e
See how filling empty spaces in carbon nanotube fibers with a carbon precursor and carbonizatio
Filling voids in carbon nanotube fibers with a carbon precursor improves stress transfer, lowers contact resistance, and preserves high-temperature performance.
An alpha-phase iron catalyst drives low-temperature exothermic conversion of solid carbonaceous material into hydrogen with lower energy use and CO2 emissions.
A fuel cell shifts carbon capture from furnace flue gas to cracking tail gas, cutting nitrogen issues while generating electricity.
Separating hydrogen from cracking tail gas lets a fuel cell convert methane into power while simplifying CO2 capture and avoiding nitrogen issues.
A hydraulic piston and segmented valve layout pressurizes and depressurizes abrasive biomass streams while reducing valve wear and energy use.
A graphite insert shapes internal threads in green ceramic microfluidic modules, avoiding costly post-firing machining and easing coupler assembly.
Protrusion-shaped borides on PCBN inhibit crack growth and strengthen binder bonding, improving wear, impact resistance, and tool life.
A Mo-V-Te-Ta catalyst route uses hydrothermal synthesis and calcination to sustain ethylene selectivity above 400°C while limiting degradation.
Circulating heated particulates in a spouting bed pyrolysis reactor limits wall coking while separating solid carbon and hydrogen.
Using regolith itself to seal reactor inlet and outlet enables continuous oxygen extraction with fewer valve failures and stable gas containment.
Molten iron or nickel dissolves solid carbon and precipitates high-purity graphite at lower temperatures, cutting energy use and emissions.
A hydraulic piston and pre-depressurization chamber cut valve wear in abrasive biomass pumping while stabilizing pressure and energy use.
A movable frame and rotating shaft simplify furnace component removal and installation without counterweights, cutting space, time, and risk.
Mesoporous Bi2O3-CaSiO3-g-C3N4 boosts adsorption and visible-light photocatalysis to degrade persistent organic contaminants in water.
A pumped double-pipe melt circulation path fits standard tank valves while maintaining discharge flow and melting solidified contents.