2results about How to "Reduce carry out" patented technology

This utility model relates to the field of gas detection, and in particular to a condensation and separation device for gas detection. It includes a gas collecting mechanism comprising an inlet, an outlet on the inlet, and a condenser cylinder within the inlet; a condensation mechanism comprising a guide section within the inlet, a drainage section within the inlet, and an exhaust section within the inlet; and a turbulence mechanism comprising a drive section within the inlet and a turbulence section within the inlet. This condensation and separation device for gas detection uses a gas injection inlet pipe, where a fan drives a rotating rod and a turbulence plate to rotate, resulting in a more uniform air temperature distribution in the condenser cylinder and improving the efficiency and effectiveness of mixed gas condensation and separation. The funnel-shaped design of the guide plate and the curved design of the drainage pipe allow the condensed liquid to enter the exhaust chamber and be discharged through the guide plate and drainage pipe, reducing the possibility of condensate being carried out during exhaust.

This utility model discloses a dust removal and cooling device for high-dust, high-concentration, ultra-high-temperature hydrogen gas, used for dust removal and cooling of the cracked gas produced by methane cracking for hydrogen production. It includes a dust collector and a cooling device. The dust collector comprises a gravity dust collection box and a water tank, with the gravity dust collection box nested within the water tank. The gravity dust collection box is used to deposit carbon powder in the cracked gas and has an ash hopper at its bottom. The water tank cools the gas entering the gravity dust collection box by supplying circulating water. The cooling device cools the cracked gas after dust removal by supplying circulating water. This dust removal and cooling device effectively solves the technical problems existing in the current methane cracking for hydrogen production process, such as difficulty in carbon-hydrogen separation under high dust, high concentration, and ultra-high temperature conditions, carbon powder blockage during hydrogen cooling, and difficulty in collecting carbon powder after high-temperature dust removal. The cracked gas undergoes subsequent cooling treatment only after a large amount of carbon powder is removed and after initial cooling and deceleration, which reduces the risk of blockage in the cooler.