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Development of a new learning algorithm

Over the course of the past 2-3 weeks I decided to take the plunge of learning a new training algorithm which had quite alot of attention in the academic community but was also well constructed for easier implementation. The work by Peng et al on developing the Continuous Forward Algorithm (CFA) was my subject of attention. The overall premise behind implementing this algorithm was to investigate less memory-intensive machine learning algorithm that will not sacrifice accuracy or robustness.


The ability to have a real-time learning system for low-cost electronics (such as the Teensy 3.6) has huge implications for the commercialization and affordable access of intelligent drones specifically for developing and even under-developed economies. The far-reaching impact of having technology leveraging efforts of farmers, herders, game rangers, biologists is the next wave of industrialization. This is the essence of this blog. The journey is very exciting and eventual results even more.

Before I get carried away in dream-walking mode, the next step is to embed this new algorithm into a microcontroller and have it run in parallel through a I2C communication link to the Pixhawk of the quadcopter. This will be foundation for the fault detection and identification mechanism, forming one of the major building blocks in intelligent drones.

Comments

  1. I think such innovation would be applicable in biometrics as well, where they do image processing (cleaning) before converting images into templates. Templates currently come in multiple light proprietary formats and bulky ISO interchange formats. I think matching biometric patterns would look different in future.

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    Replies
    1. Great comment. The application of such a learning algorithm is far reaching indeed. Let me know if you're active in that research field, I would be keen on doing collaborations.

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