科技部半導體射月計畫 109 年度產學技術交流
- Boris Murmann, tinyML: The Perfect Storm for Innovation in Ultra-Low-Power System Design
- 梁伯嵩,IC 運算平台趨勢: 數位運算、人工智慧與量子運算
- Tetsu Ohtou, Semiconductor Process and Equipment Technology for Advanced Logic Devices
- 陳俊雄,汽車產業及感測元件發展趨勢
科技部半導體射月計畫 109 年度產學技術交流
Quanta Magazine, Quantum Computers, Explained With Quantum Physics, 2021/6/8
Eiji Doi 著,歐凱寧譯,一流的人讀書,都在哪裡畫線?:菁英閱讀的深思考技術,天下雜誌,2021
進入社會後,讀書,有個重要的任務,就是投資自己的生涯,從龐雜、陌生的領域中建立起讓自己成長的知識基礎。
Paul Vicol, Luke Metz, and Jascha Sohl-Dickstein, Unbiased Gradient Estimation in Unrolled Computation Graphs with Persistent Evolution Strategies, ICML 2021. (paper, Outstanding Paper Awards)
Unrolled computation graphs arise in many scenarios, including training RNNs, tuning hyperparameters through unrolled optimization, and training learned optimizers. Current approaches to optimizing parameters in such computation graphs suffer from high variance gradients, bias, slow updates, or large memory usage. We introduce a method called Persistent Evolution Strategies (PES), which divides the computation graph into a series of truncated unrolls, and performs an evolution strategies-based update step after each unroll. PES eliminates bias from these truncations by accumulating correction terms over the entire sequence of unrolls. PES allows for rapid parameter updates, has low memory usage, is unbiased, and has reasonable variance characteristics. We experimentally demonstrate the advantages of PES compared to several other methods for gradient estimation on synthetic tasks, and show its applicability to training learned optimizers and tuning hyperparameters.