1. Electrification & Energy Innovation
Electrification moves beyond basic lithium - ion adoption to high - voltage integration, advanced thermal management, and ultra - high - capacity solutions, balancing power and low - carbon goals.
2. Autonomous Navigation & Intelligent Operation
Autonomous systems rely on sensor fusion and 3D SLAM, supporting unmanned operations and precise end - handling, which is key to smart warehouses.
3. Structural & Powertrain Integration
Highly integrated designs simplify structures, improve reliability, and reduce lifecycle costs, with breakthroughs in driveline and hydraulic systems.

A walkie stacker, also known as a pedestrian stacker, is a type of material handling equipment designed for lifting, stacking, and transporting palletized goods in warehouses, distribution centers, and small to medium-sized storage facilities. Unlike ride-on forklifts where operators sit or stand on the machine, walkie stackers are operated by a person walking alongside or behind the equipment, guiding it manually or via a handle with control buttons.

In warehouse operations, forklifts are core equipment for improving handling efficiency. As mainstream options, 3-wheel and 4-wheel forklifts each have unique performance advantages and applicable scenarios. Choosing the wrong type may not only reduce operational efficiency but also increase safety risks and maintenance costs. The following compares the two from three aspects: structural characteristics, core advantages, and applicable scenarios, and provides targeted selection suggestions.

How to Operate a Forklift 1. Pre-Operation Preparation 2. Operation Steps 3. Post-Operation Notes 4. Safety Key Points

Places Where Forklifts Are Used Forklifts are widely employed in locations that require material handling, such as loading, unloading, stacking, and short-distance transportation of goods. Their main application sites include the following。

The fuel consumption of the forklift is a critical operational cost factor for enterprises, and its performance varies significantly based on forklift type, working conditions, and usage habits. Below is a detailed breakdown to help you better understand and manage forklift fuel efficiency.

1. Key Fluids to Replace: Composition and Loss Mechanisms The body loses two primary categories of fluids, each with unique compositions and loss pathways. Understanding their differences is foundational to targeted replacement.
1.1 Water (Pure Solvent Fluid) Main Components: Primarily H₂O, with minimal electrolytes or solutes. It constitutes the largest portion of body fluid (about 50-60% of adult body weight) and is distributed in intracellular fluid (ICF, inside cells) and extracellular fluid (ECF, outside cells, including blood plasma and interstitial fluid). Common Loss Pathways: Insensible loss: Occurs without awareness, accounting for 400-600 mL of daily fluid loss in adults. This includes water vapor exhaled during breathing (200-300 mL/day) and transepidermal water loss (water evaporating through the skin, 200-300 mL/day), which is not associated with sweat glands.Sensible loss: Observable losses, such as urination (1000-1500 mL/day, the primary route for excreting waste like urea) and mild sweating during daily activities (100-200 mL/day).

When discussing forklift equipment reliability—a make-or-break factor for warehouses, manufacturers, and logistics teams—you need to tie it to tangible business outcomes (e.g., less downtime, lower maintenance costs, consistent productivity) and back claims with specific, industry-relevant proof. Below is a structured, persuasive framework to highlight your forklift’s reliability, with examples for client conversations, sales pitches, or marketing materials.