韓劇電影你都看哪一部呢？論文書籍站
國立臺北科技大學 自動化科技研究所 蔡舜宏、林郁修所指導 陳逸勳的 基於模糊邏輯與深度影像人工位能法之四旋機編隊避障策略 （2021），提出ASUS Developer關鍵因素是什麼，來自於四軸飛行器、避障控制、防撞、深度影像、人工位能法、機器人作業系統、模糊控制。
而第二篇論文輔仁大學 國際創業與經營管理學程碩士在職專班 董惟鳳所指導 席容的 運動陪伴之家用機器人使用者介面與體驗之初探 （2020），提出因為有 的重點而找出了 ASUS Developer的解答。
ASUS Developer進入發燒排行的影片
I’ve seen many crazy things in my life, especially while playing this game, Pokémon GO. However, nothing or nobody comes close to this level of insanity when it comes to playing Pokemon GO in 45 devices on a bicycle at the age of 70. Uncle 陈三元, shows and explain to us how it is like to use 45 phones to play this game on his bicycle here in Taipei, Taiwan.
I also gave my views towards the Terms of Services set by the developer of this game.
Join me as I travel, eat and play Pokémon GO the way a local trainer would in their own country and city.
Subscribe if you would like to watch my Pokémon GO travel adventure as I visit different countries, cities and communities, https://tinyurl.com/y65jruw2
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Pokémon is Copyright Gamefreak, Nintendo and The Pokémon Company 2001-2016
All images and names owned and trademarked by Nintendo, Niantic, The Pokémon Company, and Gamefreak are property of their respective owners.
基於模糊邏輯與深度影像人工位能法之四旋機編隊避障策略
為了解決ASUS Developer 的問題，作者陳逸勳 這樣論述：
在本論文中，我們提出一種基於模糊邏輯與深度影像的人工位能方法，以實現多架四軸飛行器在三維空間中的避障和防撞策略。利用深度影像判別障礙物分布，並透過演算法計算其中心位置以獲得避障方向。除此之外，為了使無人機速度不被避障速度向量影響飛行速度，透過模糊控制方法將避障方向與當前速度向量結合，使無人機得以在不改變速度前提下實現避障。為了解決在多四軸飛行器之編隊飛行中，每架四軸飛行器在進行避障時會有互相碰撞的風險，因此，本論文提出一種改良式的人工位能法，加強垂直移動方向的防碰撞排斥力以避免四軸飛行器彼此之間發生碰撞及減少視覺感測器被遮蔽的風險，此外所產生的避障排斥力也可達到避障的效果。經由區域網路連結多
台搭載Pixhawk、飛行控制板和Raspberry Pi 4 Model B的四軸飛行器與電腦進行實際飛行以驗證所提之結果。經由實驗結果可驗證所開發之四軸飛行器及設計方法之可行性及有效性。
運動陪伴之家用機器人使用者介面與體驗之初探
為了解決ASUS Developer 的問題，作者席容 這樣論述：
The concept of companion robots has been widely accepted by the current market, plus the public's pursuit of healthy living and the aging of the population has been intensifying, leading to an increasing demand for health technology to maintain people’s cognitive and physical health. In this sense,
physical exercise is needed and exercise robots can help achieve these goals. However, this technique hasn’t been well developed yet.This study was conducted to find out the key influences that would affect the user experience (UX) and the user interface (UI), which would provide system developer t
he practical information they need for better UX and UI design. In this study, we used an exercise robot system “Sporden” with an ASUS robot “Zenbo” as a prototype. Then conducted two evaluation methodologies; (System Usability Scale (SUS) and Analytical Hierarchy Process (AHP)), to identify the cru
cial factors in UX and UI when designing an exercise robot. The outcome of the methodologies will provide great insight of users for business for future reference.