Brand: Omnergy
Product origin :Yichang
Delivery time: 15 days
Supply capacity :750 million per year
In the era of IoT miniaturization and smart medical diagnostics, footprint constraints cannot compromise power reliability. The CR1025 3V 30mAh Lithium Manganese Dioxide (LiMnO2) Coin Cell Battery is engineered precisely for high-density electronic applications requiring a micro-power source with a stable voltage discharge profile.
With a diameter of just 10mm and a thickness of 2.5mm, this ultra-compact cell packs a nominal capacity of 30mAh, offering an exceptional energy-to-weight ratio for next-generation hardware designs.
Core Specifications of CR1025 3V 30mAh Lithium Manganese Dioxide Button Cell Battery
| Technical Parameter | Specification |
| Battery Model | CR1025 |
| Chemical System | Lithium Manganese Dioxide (LiMnO2) |
| Nominal Voltage | 3.0V |
| Nominal Capacity | 30mAh |
| Dimensions | Diameter: 10.0mm | Height: 2.5mm |
| Standard Weight | 0.7g |
| Operating Temperature | -20°C to +70°C |
| Self-Discharge Rate | <2% per year (at room temperature) |
Key Performance Advantages
1. Medical-Grade Reliability & Voltage Stability
When deployed in critical health-monitoring hardware, voltage drops are not an option. Our CR1025 utilizes an advanced LiMnO2 chemical composition that maintains a flat 3.0V discharge curve throughout most of its operational lifespan, ensuring precise data transmission and sensor accuracy.
2. Extreme Thermal Resilience (-20°C to 70°C)
From outdoor industrial asset trackers to cold-chain medical transport sensors, this battery is built to survive harsh environments. The optimized organic electrolyte formula prevents crystallization at freezing temperatures and resists degradation in high-heat scenarios.
3. Decaded-Long Shelf Life (Low Self-Discharge)
Featuring a high-integrity leakage-proof seal and premium raw materials, our CR1025 boasts a self-discharge rate of less than 2% per year. This makes it an ideal choice for emergency backup systems and products that sit in distribution channels for extended periods.