Compared to traditional airflow regulating valves, Venturi valves can become the core airflow control equipment in cleanroom air conditioning and ventilation systems. Their core advantages lie in their ability to meet the stringent requirements of cleanrooms, including high stability, high precision, dynamic controllability, low maintenance, and energy efficiency compliance.

In high-end manufacturing fields such as biomedicine, semiconductors, precision electronics, medical devices, and new materials, cleanrooms are core infrastructure for ensuring product quality and meeting compliance requirements. For a long time, traditional civil engineering cleanrooms have dominated the market due to their stability. However, with accelerated industrial iteration, frequent production capacity fluctuations, the normalization of factory leasing, and increased demand for enterprise relocation and expansion, relocatable and reusable modular cleanrooms are rapidly replacing traditional models and becoming the preferred choice for more and more companies.

In the semiconductor industry, the precision of chips is measured in nanometers. Any minute external interference can lead to product failure, and moisture is the most insidious and fatal factor in this "nanometer-level game." From wafer front-end manufacturing to chip packaging and testing, from core device storage to final assembly and shipment, a dry environment is essential throughout the entire semiconductor production process. Drying rooms are not optional facilities, but rather a rigid necessity supporting high-quality development of the industry and ensuring product quality. They are also a core support for the survival and competitiveness of semiconductor companies.

In demanding environments such as pharmaceutical workshops, electronic cleanrooms, biological laboratories, and precision testing rooms, stable airflow, precise airflow control, and pressure self-adaptation are crucial for ensuring environmental compliance. Venturi valves, as core airflow control components in HVAC and cleanroom ventilation systems, have become the mainstream choice for variable air volume (VAV) systems and FFU (Fan Filter Unit) systems due to their self-regulating structure, high-precision adjustment, and low pressure loss.

In high-end industries such as electronics and semiconductors, biomedicine, and precision manufacturing, cleanrooms are the "core sanctuary" for ensuring product quality. They need to maintain constant temperature and humidity, as well as extremely high air cleanliness, to prevent tiny dust particles and temperature and humidity fluctuations from interfering with precision production and experiments. However, what is little known is that this "pure land" comes at an extremely high energy cost: a medium-sized cleanroom often consumes dozens of times more energy than an office building of the same size, with ventilation and air handling accounting for over 60% of the energy consumption, becoming a double burden on enterprise operating costs and environmental pressure.

Modular cleanrooms, with their advantages of flexible assembly, rapid deployment, and relocation, are widely used in industries with strict cleanliness requirements, such as electronics, pharmaceuticals, biology, and food. Compared with traditional cleanrooms, while modular structures offer greater stability and convenience, the standardization of daily maintenance directly determines their ability to maintain cleanliness levels and their service life.