| HS Code | Official Doc | Tariff Rate | Origin | Destination | Effective Date |
|---|---|---|---|---|---|
| 8201906000 | Doc | 55.0% | CN | US | 2025-05-12 |
| 8201903000 | Doc | 2¢ each + 5.1%+55.0% | CN | US | 2025-05-12 |
| 8205591000 | Doc | 62.2% | CN | US | 2025-05-12 |
| 8205598000 | Doc | 58.7% | CN | US | 2025-05-12 |
| 8206000000 | Doc | The rate of duty applicable to that article in the set subject t+30.0% | CN | US | 2025-05-12 |
| 7326908688 | Doc | 82.9% | CN | US | 2025-05-12 |
Lever Tool
A lever tool is a simple machine consisting of a rigid object (the lever) and a fulcrum about which it pivots. Levers are used to amplify an applied force, allowing a smaller force to overcome a larger resistance force. They are fundamental tools employed across numerous applications, from basic prying to complex mechanical systems.
Material
Levers are constructed from a variety of materials depending on the intended application and required strength. Common materials include:
- Steel: High strength and durability, used in crowbars, wrenches, and heavy-duty applications.
- Aluminum: Lightweight and corrosion-resistant, suitable for applications where weight is a concern.
- Wood: Historically common, still used in certain applications due to cost-effectiveness and ease of shaping.
- Plastic/Composite Materials: Used in smaller, less demanding applications where corrosion resistance or electrical insulation is important.
Purpose
The primary purpose of a lever tool is to:
- Multiply Force: Increase the force applied to an object.
- Change Direction of Force: Alter the direction of the applied force.
- Increase Distance: Move an object a greater distance with a smaller input force (though this usually comes at the cost of force multiplication).
Function
Levers operate based on the principle of moments (torque). The moment is the product of the force applied and the distance from the fulcrum. The fundamental equation governing lever function is:
Force x Distance (effort arm) = Resistance x Distance (resistance arm)
- Effort Arm: The distance between the fulcrum and the point where the effort force is applied.
- Resistance Arm: The distance between the fulcrum and the point where the resistance force is applied.
- Mechanical Advantage: The ratio of the effort arm to the resistance arm. A higher mechanical advantage means less effort force is required, but over a longer distance.
Usage Scenarios
Lever tools are used in a wide array of scenarios:
- Construction: Crowbars for prying nails and boards, wrecking bars for demolition.
- Automotive Repair: Wrenches for tightening/loosening bolts, tire irons for removing tires.
- Gardening: Shovels and spades utilize lever principles for digging and lifting.
- Household Tasks: Bottle openers, scissors, pliers, and nutcrackers.
- Industrial Applications: Heavy machinery, hydraulic presses, and various lifting devices.
Common Types
Levers are classified into three classes based on the relative positions of the fulcrum, effort, and resistance:
- Class 1 Levers: Fulcrum is between the effort and resistance. Examples: Crowbar, seesaw, scissors. Can provide both force multiplication and distance amplification.
- Class 2 Levers: Resistance is between the fulcrum and the effort. Examples: Wheelbarrow, nutcracker, bottle opener. Always provide force multiplication.
- Class 3 Levers: Effort is between the fulcrum and the resistance. Examples: Tweezers, human forearm. Provide distance amplification, but require more effort force.
The declared goods, “lever tool”, fall under various classifications depending on its specific use and material. Here's a breakdown of potentially relevant HS codes based on the provided information:
- 8201906000: This code covers “Other handtools of a kind used in agriculture, horticulture or forestry, and parts thereof: Other”. If the lever tool is specifically designed for agricultural, horticultural, or forestry applications, this could be applicable. The total tax rate is 55.0%, comprised of a 0.0% base tariff and a 25.0% additional tariff, increasing to 30.0% after April 2, 2025.
- 8205591000: This code covers “Handtools (including glass cutters) not elsewhere specified or included; blow torches and similar self-contained torches; vises, clamps and the like, other than accessories for and parts of machine tools or water-jet cutting machines; anvils; portable forges; hand- or pedal-operated grinding wheels with frameworks; base metal parts thereof: Other handtools (including glass cutters) and parts thereof: Other: Pipe tools, and parts thereof”. If the lever tool is a pipe tool, this HS code is relevant. The total tax rate is 62.2%, consisting of a 7.2% base tariff and a 25.0% additional tariff, increasing to 30.0% after April 2, 2025.
- 8205598000: This code covers “Handtools (including glass cutters) not elsewhere specified or included; blow torches and similar self-contained torches; vises, clamps and the like, other than accessories for and parts of machine tools or water-jet cutting machines; anvils; portable forges; hand- or pedal-operated grinding wheels with frameworks; base metal parts thereof: Other handtools (including glass cutters) and parts thereof: Other: Other”. If the lever tool doesn't fall into a more specific category within 8205.59, this could be applicable. The total tax rate is 58.7%, comprised of a 3.7% base tariff and a 25.0% additional tariff, increasing to 30.0% after April 2, 2025.
- 7326908688: This code covers “Other articles of iron or steel: Other: Other: Other: Other”. If the lever tool is made of iron or steel and doesn't fit into other classifications, this could be applicable. The total tax rate is 82.9%, consisting of a 2.9% base tariff and a 25.0% additional tariff, with an additional 25% tariff on steel or aluminum products.
Important Note: The correct HS code depends on the specific material and intended use of the lever tool.
Declaration Precautions: For HS code 7326908688, please note the 25% additional tariff applied to steel or aluminum products. Material verification may be required.