New medical waste treatment equipment

　Medical waste disposal equipmentSystem overall process:

1. High temperature sterilization and crushing in the early stage;

2. Obtaining economic value through biomass decomposition in the later stage

Specific operational process for pre-treatment of medical waste:

Feeding of turnover box → Sterilization treatment → Discharge → Crushing treatment → Transport and collection → Automatic cleaning of turnover box → Reuse

Medical waste post-processing equipment (biomass decomposition) process

The medical waste that has undergone high-temperature cooking is directly transported to a low-temperature and atmospheric pressure biomass decomposition processor for catalytic heating. Oil vapor is distilled, and the oil and gas pass through a condenser. The liquefiable part is condensed into mixed oil, while the non liquefiable part is treated by a gas purification system and burned at the bottom of the processor through a gas system. This not only saves fuel energy but also does not pollute the environment.

The smoke generated after combustion enters the spray tower and mixes with the alkali solution pumped by the water pump (the pool is mixed with alkali solution). At this time, the alkaline substances in the alkali solution undergo acid-base neutralization reaction with the acidic substances in the smoke gas, achieving the goal of removing the acidic substances in the smoke gas.

After acid-base neutralization, the residual alkali solution in the flue gas is removed by the packing in the adsorption tower, and then flows back to the water tank. The clean flue gas is discharged to complete the desulfurization, dust removal and purification treatment of the flue gas; The residue after cracking is transported to the carbon black slag collection tank through a sealed cage, which is environmentally friendly and pollution-free.

Any organic waste polymer, whether it is "meat", "vegetable" or "artificial", is synthesized from basic organic molecules, but their synthesis conditions and environments are not the same. According to the basic synthesis reaction laws of organic substances, there should be inverse conditions for synthesis reactions. If such inverse conditions can be effectively found, then organic macromolecules should be able to be cleaved. Therefore, how to find the reverse conditions and establish a reverse engineering system is the key to achieving the ability to send organic waste materials back home (pyrolysis reduction). After years of research and development, a reverse engineering system for generating such inverse conditions has been discovered. This reverse engineering system realizes the recycling of resource-based materials: retaining the resource value of waste materials, returning them to their physical state before they were formed into waste materials, and then reusing and reusing these resource-based materials. This should be a higher level for humans to connect and achieve material recycling.