SRP3012CC-R15Y
AI

The **SRP3012CC-R15Y** is a high-current, shielded power inductor manufactured by **Bourns**. It is specifically designed for high-density power applications such as DC/DC converters and power supplies in consumer electronics.
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### 1. Technical Specifications
The part number follows a specific nomenclature that defines its physical and electrical characteristics.
| Parameter | Specification |
| :--- | :--- |
| **Inductance** | 0.15 µH |
| **Tolerance** | ±30% |
| **Inductance Code** | R15 (0.15) |
| **Case Size** | 3012 (approx. 3.0 x 3.0 x 1.2 mm) |
| **DC Resistance (DCR)** | 6.5 mΩ (Typ) / 7.8 mΩ (Max) |
| **Irms (Heating Current)** | 9.0 Amperes |
| **Isat (Saturation Current)** | 14.5 Amperes |
| **Operating Temp** | -40 °C to +125 °C |
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### 2. Key Features
* **Carbonyl Powder Core:** The inductor uses a metal alloy powder core which provides high saturation current and low core loss at high frequencies.
* **Magnetic Shielding:** The construction is "shielded," meaning it minimizes electromagnetic interference (EMI) with surrounding components.
* **Low Profile:** With a height of only 1.2 mm, it is ideal for ultra-thin devices like smartphones, tablets, and SSDs.
* **High Current Handling:** Despite its small footprint, it can handle a saturation current up to 14.5A, which is critical for modern high-speed processors.
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### 3. Applications
The SRP3012CC series is typically found in:
1. **Voltage Regulator Modules (VRMs):** For CPUs and GPUs in laptops.
2. **DC/DC Converters:** Distributed power systems and battery-powered devices.
3. **Telecom/Datacom:** Small-cell base stations and networking equipment.
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### 4. Component Footprint (Approximate)
The "3012" designation refers to the metric/imperial hybrid sizing used by Bourns:
* **Length:** 3.0 mm (± 0.2)
* **Width:** 3.0 mm (± 0.2)
* **Height:** 1.2 mm (Max)
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What are the equivalent alternatives for the SRP3012CC-R15Y from other manufacturers?
- ⤷ How does the 'CC' suffix in the part number differ from the 'TA' series?
- ⤷ What is the impact of the ±30% tolerance on high-frequency power circuit stability?