In the fields of chemical synthesis, material preparation, and drug research and development, the stability and reliability of the lifting rotary reactor, as a multifunctional reaction device, directly affect the accuracy of experimental results and production efficiency. However, complex mechanical structures and harsh working environments often lead to equipment issues such as wear and corrosion. This article will systematically explain the full process maintenance strategy from daily inspections to deep maintenance, helping technicians extend equipment life and maintain optimal working conditions.

Careful maintenance of the sealing system is the key to preventing leaks. As a vulnerable component, it is recommended to use dynamic sealing ringsLift rotating reactorCheck its aging degree every quarter - replace it in a timely manner when hardening, cracking or compression deformation occurs. Cleaning the flange surface of the kettle body is equally important, as residual reactant crystals may damage the flatness of the sealing surface. Using a dedicated scraper in conjunction with solvent wiping can restore the initial sealing state. It is crucial to regularly tighten the bolts and recheck the pre tightening force for metal wound gaskets under high-pressure conditions.

The lubrication management of the transmission mechanism determines the accuracy of motion. The copper nut of the lifting screw pair needs to be lubricated with high-temperature grease every month, and attention should be paid to controlling the amount to avoid contaminating the material in the reaction area. The gearbox of the rotary drive motor should be replaced with gear oil according to the manufacturer's specified cycle. The typical practice is to replace it after 500 hours of operation and update it annually thereafter. Belt driven models should pay attention to adjusting the tension, as being too loose can cause slippage and reduce transmission efficiency, while being too tight can accelerate belt aging.

The balance calibration of the mixing system ensures the uniformity of the process. The dynamic balance correction of blade components should be included in the annual overhaul plan, and a dial gauge should be used to check that the radial runout does not exceed the allowable value. When abnormal vibration is detected, it may be caused by bearing wear or shaft bending. Timely replacement of deep groove ball bearings and straightening of the main shaft can restore smooth operation. The anchor stirrer designed for high viscosity materials relies on a tight clearance fit for its wall scraping effect. Regularly measuring the distance deviation between the blade and the inner wall of the kettle helps maintain heat transfer efficiency.

Performance verification of temperature control module. The filter of the thermal oil circulation system needs to be cleaned of impurities every week to prevent blockage and affect heat transfer efficiency. The calibration of temperature sensors should use the standard thermometer comparison method, especially after the thermal shock test, which must be recalibrated. The popping pressure test of the safety valve should also be included in the monthly inspection items to ensure the effective overpressure protection function.

The protection of electrical control systems requires meticulous attention to detail. The dust removal work inside the control cabinet is carried out once a month, with a focus on cleaning the dust accumulation on the PLC module and relay contacts. The grounding continuity resistance value should be less than the specified limit to ensure personnel safety. The operation interface of the touch screen is regularly tested for functionality to avoid virtual button failure affecting parameter settings.

From mechanical transmission to thermal control, from sealing design to safety protection, the stable operation of the lifting and rotating reaction kettle requires technical support. Establishing standardized operating procedures and cultivating a professional operation and maintenance team are essential for truly realizing the technological value of equipment. When every reactor is carefully cared for, it will become a precise container for chemical reactions, rather than a simple stirring device. This reliability centered operation and maintenance concept is driving laboratory equipment management towards intelligence. Through scientific maintenance strategies and standardized operating procedures, we can not only extend the service life of equipment, but also ensure that it provides stable support for researchers at critical moments.