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1. Material Revolution: GaN vs. Traditional Silicon (Si) Electron Mobility: GaN’s electron mobility is 20x higher than silicon, enabling faster current flow and lower energy loss.Breakdown Voltage: GaN withstands up to 3.4 MV/cm (vs. 0.3 MV/cm for silicon), allowing higher power density.Thermal Conductivity: GaN dissipates heat 30% more efficiently than silicon at the same power level. 2. High-Frequency Switching: The Key to Compact Size High-Frequency Switching: GaN operates at MHz-level frequencies (vs. kHz for silicon), shrinking transformers and capacitors by 50%-70%.No Heat Sinks Needed: High efficiency reduces heat, eliminating bulky thermal components.Case Study: A 65W GaN charger is egg-sized, while […]

Background and Objectives In October 2022, the European Union officially passed legislation mandating that all mobile phones, tablets, headphones, and other electronic devices sold in the EU must adopt USB-C ports by the end of 2024. This is the world’s first regulation to standardize charging ports, aiming to reduce e-waste and improve consumer convenience. Potential Issues Manufacturers: Opportunities and Pressures Technical Adjustments Cost Implications Industry Trends: Standardization and Ecosystem Reshaping Technological Advancements Market Competition Global Impact: Will the EU Regulation Set a Worldwide Trend?

5 Common Causes of Charger Overheating 1. Overloaded Usage (Insufficient Power) Symptom: Charging multiple devices beyond the adapter’s rated power.Mechanism: Overloaded circuits reduce efficiency and generate excess heat.Example: Using a 30W charger for a 45W laptop + smartphone may cause overheating. 2. Poor Ventilation Scenario: Placing the charger under pillows, blankets, or in enclosed spaces.Impact: Blocks heat dissipation, causing internal temperature spikes. 3. Low-Quality Charger Design Issues: Lack of heat sinks/thermal paste, inefficient transformers, no over-temperature protection.Risks: Accelerated component degradation, short circuits, or fires (17% of fire incidents). 4. Device Compatibility Issues Case: Mismatched fast-charging protocols (e.g., Huawei SCP vs.

Powerful Performance Versatile Compatibility Quality Assurance Certifications: CE, FCC, RoHS (Meets international safety & environmental standards) Packaging Details

Why You Need a Universal Travel Power Strip? For modern travelers, staying connected is non-negotiable. However, incompatible sockets, voltage differences, and limited charging ports can turn a dream trip into a logistical nightmare. The Universal Travel Power Strip is designed to solve all these challenges, making it a must-have for anyone crossing borders. Key Features Global Compatibility Multi-Device Charging Advanced Safety Portable Design Compact size with foldable plugs and durable casing. Real-World Scenarios

Why Pure Copper Matters in Power Strips? Pure Copper Conductors: The Gold Standard for Safety & Efficiency In high-quality power strips, pure copper (100% copper) is the preferred material for internal conductors. Here’s why it outperforms alternatives like aluminum or copper-clad aluminum (CCA): 1. Superior Electrical Conductivity 2. Enhanced Safety 3. Durability & Sustainability 4. Meets Global Standards High-end certified power strips (e.g., UL, CE) require pure copper conductors to guarantee quality and compliance. Material Conductivity Heat Resistance Lifespan Pure Copper 98%+ (IEC) Stable at 80°C+ 10+ years Aluminum/CCA ~60% Weakens under heat 3-5 years (oxidizes)

Understanding the Pros, Cons, and Safety Implications 1. Pure Copper (100% Copper) Best for: High-end power strips, heavy-duty devices. Advantages Disadvantages  Higher cost than alternatives. 2. Aluminum Best for: Low-cost, temporary-use power strips. Advantages Lightweight and affordable. Disadvantages: 3. Copper-Clad Aluminum (CCA) Best for: Mid-range products balancing cost and performance. Advantages: Cheaper than pure copper, better conductivity than pure aluminum. Disadvantages: 4. Tinned Copper Best for: Humid environments or industrial applications. Advantages: Disadvantages: Slightly higher cost than pure copper.

1. What is a Power Adapter? A power adapter is a device that converts alternating current (AC) from a wall outlet into direct current (DC) required by electronic devices. It ensures safe and efficient power delivery for laptops, smartphones, and other gadgets. Key Features Applications Notes

1. By Function 2. By Design 3. By Application 4. Specialized Power Strips

In the era of fast-paced technology, charging solutions need to keep up with our demands for speed, efficiency, and portability. OL’s latest Gallium Nitride (GaN) charger redefines what a power adapter can be—combining cutting-edge technology with sleek design to deliver a superior charging experience. Why GaN Technology? Gallium Nitride (GaN) is a revolutionary semiconductor material that outperforms traditional silicon. It enables chargers to be smaller, lighter, and more efficient while supporting higher power outputs. OL’s GaN charger harnesses this innovation to provide faster charging without compromising safety or reliability. Key Features 1. High-Power Output 2. Universal Fast-Charging Compatibility 3. Ultra-Compact Design 4.