In the evaluation of forklifts, the core evaluation dimensions of quality issues cover six major aspects: performance parameters, safety design, ergonomics, reliability, maintenance convenience, and cost-effectiveness. The following is a detailed analysis:

1. Performance parameters: basic capability indicators of forklifts

Rated lifting capacity and load center distance: The rated lifting capacity refers to the maximum weight of goods that a forklift is allowed to lift under specified conditions, while the load center distance is the vertical distance from the center of gravity of the goods to the front wall of the forks. These two parameters jointly determine the actual load-bearing capacity of the forklift and serve as the basis for evaluating its performance.

Maximum lifting height and mast tilt angle: The maximum lifting height determines the highest position where the forklift can stack goods, while the mast tilt angle (forward tilt angle and backward tilt angle) affects the convenience of picking up and unloading goods, as well as the stability of goods during transportation.

Travel speed and turning radius: Travel speed affects the work efficiency of the forklift, while the turning radius determines its operational flexibility in narrow spaces.

II. Safety design: ensuring the safety of personnel and goods

Braking system: Braking distance and brake pedal free play are key indicators for evaluating the performance of the braking system. The shorter the braking distance, the better the braking effect; a moderate brake pedal free play ensures timely and accurate braking response.

Forks and accessories: The wear and deformation of forks must be strictly controlled within a safe range to ensure load-bearing capacity and operational stability. The design of accessories (such as side shifters, clamps, etc.) must also comply with safety standards to prevent detachment or damage during use.

Safety devices: Safety devices such as headlights, reversing buzzers, speed limiters, and overhead guards must be complete and effective. Headlights must ensure effective illumination distance during nighttime operations; reversing buzzers must ensure a sufficiently loud warning sound when reversing; speed limiters must be able to limit the maximum speed of the forklift to prevent overspeeding; overhead guards must be able to withstand the vertical static load of the specified load, protecting the driver from falling objects.

III. Ergonomics: Enhancing Operational Comfort and Efficiency

Cab design: A humanized cab should have good noise control, vibration damping performance, and thermal insulation effects, providing a comfortable working environment for the driver and reducing fatigue.

Vision: Good vision is crucial for drivers, as it not only enhances operational accuracy but also ensures driver safety during operations. The design of forklifts should minimize blind spots and provide a clear operating environment.

Operational convenience: The operation of the forklift should be as simple and convenient as possible, reducing the number of operational actions and fatigue for the driver. For example, the use of ergonomically designed handle and button layouts allows the driver to easily control various functions of the forklift.

IV. Reliability: The ability of forklifts to work continuously

Failure rate: The failure rate is one of the important indicators for evaluating the reliability of forklifts. A low failure rate means that the forklift can continue to work for a longer period of time, reducing downtime and maintenance costs caused by failures.

Service life: Service life is also an important aspect in evaluating the reliability of forklifts. High-quality forklifts should have a long service life and be able to maintain stable performance in harsh working environments.

V. Maintenance convenience: Reducing maintenance costs and downtime

Convenience of parts replacement: The components of the forklift should be designed to be easily replaceable and maintainable, in order to reduce maintenance time and costs. For example, adopting a modular design for the control system and an easily detachable fork structure.

Fault diagnosis and troubleshooting: High-quality forklifts should be equipped with advanced fault diagnosis systems that can quickly and accurately locate the fault point and provide maintenance suggestions. This helps to shorten maintenance time and improve the utilization rate of the forklift.

VI. Cost-effectiveness: Comprehensive consideration of procurement, maintenance, and energy consumption costs

Procurement cost: Although procurement cost is one of the factors to consider when evaluating the quality of forklifts, one should not excessively pursue low prices. An excessively low price may imply sacrificing product quality and after-sales service.

Maintenance cost: Maintenance cost includes the cost of repair parts, downtime losses caused by failure rate or failure time, etc. High-quality forklifts usually have lower maintenance costs due to their lower failure rate.

Energy consumption cost: The energy consumption cost varies with different power systems of forklifts. For example, electric forklifts usually have lower energy consumption costs, but factors such as battery replacement and charging time need to be considered; internal combustion forklifts may have higher energy consumption costs, but they have stronger power and a wider range of applications.

The main equipment produced by Hebei Makita: stage electric hoist, electric chian hoist, wire rope electric hoist，Hand chain hoist, lever hoist, pneumatic hoist and other lifting equipment