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I haven’t worked on many devices, but not a few either; I’ve been working for quite some time, and I’ve been in countless different places – I have no fixed residence, and I roam around just like a Gypsy. Compared to true masters, I still lack a lot; I have my own understanding of devices. Production facilities can be divided into processes and equipment, which complement each other and are both essential. The research institute develops new processes and technologies; then the design institute selects appropriate equipment based on the reaction mechanisms and properties of the materials. Finally, the production staff determines the product quality and production capacity based on their understanding of the reaction mechanisms and their familiarity with the equipment. The equipment designed by the design institute must ensure successful operation; only by truly understanding the reaction mechanism can one better identify problems and solve them. But the equipment that matches it requires even greater expertise. We are operators; we don’t need to know how it was developed, only its performance and practical capabilities. The quality of equipment determines whether production and operations can proceed smoothly. Equipment has its own temperament and personality; it can become overloaded when given too much work, and it can also feel hungry at times. It can be regarded as a form of life, and by truly understanding it, learning from it, and respecting it, it will give you 100% in return. With the support of equipment, the process can function properly. Equipment is designed to serve a process; the design institute is like the hand of God, endowing the equipment with life while also determining its fate. In terms of the processing methods, the vast majority of these involve chemical reactions within the reactor; the rest are physical reactions. Understanding the reaction mechanisms and the properties of the materials makes the operation simpler. Mutual heat transfer and phase changes are used to separate the products and improve their purity. No matter how the equipment is configured, there are always fractionation towers, heat exchangers, mechanical pumps, valves – all of them are equipment assembly modules. The equipment is modular in design, and only those who truly understand it well can handle it effectively. No matter how it is changed, a distillation column always involves material balance at the inlet and outlet, energy conservation, and gas-liquid equilibrium. A set designed for optimal use – can’t it be made with a different manufacturing process? It’s just that when the materials and reaction conditions change, or when a few more or fewer devices are added, can’t the process be carried out anymore? Can’t it be done as long as one follows safety standards, safety operating procedures, implements ticket-based management for the eight types of special operations plus temporary electrical work, and adheres to emergency response plans? With proper supervision, an awareness of the safety risks associated with production, and sufficient production skills, it doesn’t matter what kind of equipment is used; as long as one is determined, they can do a good job
I particularly agree with this statement: with proper safety oversight, an awareness of one’s own potential safety hazards in production, and sufficient production skills, it doesn’t matter what kind of equipment is used – as long as one is committed, good results can be achieved
I strongly agree with the original poster’s view; the idea of considering devices as living entities is one I understand very well. When I worked as a catalytic operation worker, I used to say that the catalytic unit is like a person: the reaction zone represents the mouth, distillation is the stomach, and absorption and stabilization function as the intestines. Eating too much can lead to indigestion……
I’ve learned it; I’ll come by to check your posts every day. I hope to learn *alkylation from you as my teacher.
Well written; it shows careful reflection and understanding