Key benefits Provides a compact, adjustable boost solution to convert a 4.5 to 32 V input into an adjustable 5 to 42 V output, up to 6 A. Non isolated design simplifies integration in systems where input and output share a common ground. switching frequency of 180 kHz allows faster response and enables smaller passive components for a more compact module. On board trim potentiometer for easy voltage adjustment and tuning without external components. Board level module that is straightforward to integrate into projects requiring a higher voltage rail from a lower voltage source. Key attributes Type: Adjustable non isolated DCDC boost (step up) module Input voltage range: 4.5 V to 32 V Output voltage range: 5 V to 42 V Maximum output current: Up to 6 A Switching frequency: 180 kHz Adjustment: Onboard potentiometer Grounding: Non isolated (input and output share common ground) Construction: Board level module with standard electronic components on a PCB Size and form factor: Compact module suitable for project integration Compatibility: Suitable for batterypowered systems, solar sources, LED lighting, microcontroller supplies, and other DC power applications Specifications at a glance Input: 4.5 V to 32 V Output: 5 V to 42 V (adjustable) Current: Up to 6 A Frequency: 180 kHz Topology: Non isolated DCDC boost Adjustment: Onboard trim potentiometer Applications and use cases Power a 5 V microcontroller or USBpowered device from a higher voltage source such as a Liion battery or a solar panel within the 4.5 to 32 V input range. Drive 12 V LED strips or other mid range voltage loads from a battery pack or other DC source by boosting to the required 12 V or higher within the 5 to 42 V output range. Build a portable solar or battery powered regulator that converts variable input voltages up to 32 V into a stable higher voltage rail up to 42 V for sensors, actuators, or other voltage loads. Usage considerations This module is non isolated, so input and output share a common ground. Plan wiring accordingly if isolation is required between circuits. Ensure the input voltage stays within 4.5 to 32 V and the output voltage is set within 5 to 42 V for safe operation. Heat dissipation should be considered for higher current loads near the 6 A maximum. Use adequate cooling or heat sinking as needed. Proper input and output decoupling and wiring practices are recommended to minimize ripple and maximize stability.