Anti-corrosion loaders effectively control corrosion risks in harsh environments by applying special protective coatings or using corrosion-resistant materials to their structural surfaces. Surface treatments may include water-based clearcoats, anti-oxidation layers, and marine-grade four-layer coating systems to slow the corrosion process and extend equipment lifespan and reliability. For example, in specialized environments such as port operations, offshore engineering, and chemical parks, the average service life of conventional loaders is shortened by 40%-60%. Breakthroughs in anti-corrosion technology enable equipment to maintain stable performance in extreme environments such as salt spray and acid rain.

With the advancement of battery power technology, electric loaders have gained significant interest in the loader industry. Electric loaders utilize an electric drive system powered by high-performance lithium-ion batteries. The electric motor provides both propulsion and hydraulic power, replacing traditional diesel engines. This enables zero-emission, low-noise, and highly efficient operation.

Loaders equipped with high-performance hydraulic systems achieve extremely precise motion response through precise digital proportional control, optimized valve core structure, and real-time feedback modeling, achieving control accuracy down to 0.01mm. This translates to exceptionally fine control of actions such as bucket positioning and hatch opening and closing in heavy-duty environments. Below, we detail the core reasons and optimization mechanisms for hydraulic loaders' such precision.

When ordinary forklifts are caught in a dilemma at a flooded construction site, all-terrain forklifts are generally used in logistics parks to complete emergency transfers in heavy rain. In the muddy, waterlogged, and soft ground construction environment of the rainy season, once a traditional forklift is stuck in the mud, its efficiency and safety will be greatly reduced.