Abstract: A sensor system for sensing topography of a planet is disclosed herein. The system comprises at least one on-board processor. The system further comprises at least one first and second configured on a vehicle moving at a height from a crust portion of the planet for sensing the topography of a sample area of the planet. The sensors are communicatively coupled to the on-board processor. The system comprises a memory communicatively coupled to the on-board processor, wherein the memory stores executable instructions that, when executed by the processor, cause the processor to facilitate synchronized and aligned orientation of the sensors in a direction towards the sample area for sensing spatially and temporally matched datasets. The processor then receives and processes the spatially and temporally matched datasets to achieve pixel level co-registration thereof.

Abstract: A sensor system for sensing topography of a planet is disclosed herein. The system comprises at least one on-board processor. The system further comprises at least one first and second configured on a vehicle moving at a height from a crust portion of the planet for sensing the topography of a sample area of the planet. The sensors are communicatively coupled to the on-board processor. The system comprises a memory communicatively coupled to the on-board processor, wherein the memory stores executable instructions that, when executed by the processor, cause the processor to facilitate synchronized and aligned orientation of the sensors in a direction towards the sample area for sensing spatially and temporally matched datasets. The processor then receives and processes the spatially and temporally matched datasets to achieve pixel level co-registration thereof.