The **AD8038AKSZ-R2** is a high-speed, voltage feedback operational amplifier manufactured by Analog Devices. It is designed for applications requiring low power consumption without sacrificing bandwidth and performance. --- ## 1. Technical Specifications The following table highlights the core electrical characteristics of the AD8038AKSZ-R2: | Parameter | Specification | | :--- | :--- | | **Architecture** | Voltage Feedback Op-Amp | | **Bandwidth (-3 dB)** | 350 MHz | | **Slew Rate** | 425 V/µs | | **Supply Voltage Range** | 3V to 12V (Single) or ±1.5V to ±6V (Dual) | | **Supply Current** | 1.0 mA (Typical) | | **Input Bias Current** | 400 nA | | **Package Type** | SC70-5 (KS Package) | | **Packing Method** | Tape & Reel (R2 denotes small reel) | --- ## 2. Key Features & Benefits * **Low Power Consumption:** Operates on only 1.0 mA of quiescent current, making it ideal for battery-powered portable electronics. * **High Speed:** Despite its low power, it offers a 350 MHz bandwidth, which is suitable for video and high-speed signal processing. * **Rail-to-Rail Output:** The output swing extends to within millivolts of the supply rails, maximizing the dynamic range. * **Low Distortion:** Maintained high linearity, which is critical for driving Analog-to-Digital Converters (ADCs). --- ## 3. Pin Configuration (SC70-5) The AD8038AKSZ-R2 uses a standard 5-lead SC70 package. The pinout is typically structured as follows: 1. **Vout:** Output of the amplifier. 2. **V-:** Negative power supply (or Ground in single-supply mode). 3. **Vin+:** Non-inverting input. 4. **Vin-:** Inverting input. 5. **V+:** Positive power supply. --- ## 4. Typical Applications * **Active Filters:** High-speed filtering in communication systems. * **ADC Drivers:** Buffering signals for high-speed data acquisition. * **Portable Instruments:** Oscilloscopes and signal generators. * **Video Electronics:** Distribution and amplification of video signals. --- ## 5. Coding Example: Calculating Gain If you are designing a non-inverting amplifier circuit using this part, you can use a simple script to determine your resistor values. ```python # Simple gain calculation for non-inverting AD8038 circuit def calculate_gain(rf, rg): """ Gain = 1 + (Rf / Rg) Rf: Feedback resistor Rg: Resistor to ground """ gain = 1 + (rf / rg) return gain rf_value = 1000 # 1k Ohm rg_value = 1000 # 1k Ohm print(f"The circuit gain is: {calculate_gain(rf_value, rg_value)}") ```