2.

『高科技產業趨勢與策略分析』授課計畫    詹文男
¡ 教學目標

Ø 熟悉產業分析策略工具及分析模型。

Ø 掌握高科技產業發展趨勢，主要廠商動向以及產業發展的挑戰與契機。

Ø 藉由個案研究與探討期使同學熟悉科技產業標竿創新商業模式，並能夠獨立思考如何運用於實務中。

¡  課程實施方式

Ø  選擇台灣重點發展之高科技產業，如資訊硬體、資訊軟體、半導體、影像顯示等產業及公司策略進行研討。

Ø  課程實施方式包括探討產業分析方法論，思考要領，並視需要邀請專業產業分析師報告，之後進行同學產業發展報告及發展策略建議，並作個案實務討論。

¡ 課程要求

Ø 學期中同學將分組針對不同高科技產業之發展之關鍵要素，機會與挑戰進行資料收集及分析，並進行討論。

Ø 期末撰寫產業或競爭分析報告。

¡ 評分方法

Ø 課堂出席及討論：20%, 平時報告：20%，學期報告：30%，期末考30%

¡  課程教材

Ø 2007 Taiwan Industrial Outlook, ITIS/ DOIT

¡ 教學計畫

CLASS SCHEDULE

Office Hours:
            Friday 5:30-6:30 p.m.; other times by appointment

Description:

This course provides systematic introduction about fundamental mobile communication systems/networks/architecture. Focusing technologies in this year will be fundamentals of cellular communications, OFDM-based wireless broadband communications (wireless local area networks, wireless personal area networks, and mobile WiMAX), and technology toward 4G wireless. The course suitable for 1^st or 2^nd year graduate students and senior undergraduate students will be presented in English in different aspects: conceptual orientation, theoretical framework and analysis, and system design.

Perquisite:

Probability, Principles of Communications, Digital Communications or equivalent (preferred), Introduction to Computer Networks (preferred).

Outline:

1.    Fundamentals of Mobile Communications
        1.1. Basic Digital Communication Theory
        1.2. Mobile Communication Engineering
        1.3. Digital Cellular Systems
                1.3.1.            GSM, GPRS, and EDGE
                1.3.2.            Spread Spectrum, CDMA, and Multiuser Communications
                1.3.3.            IS-95
                1.3.4.            WCDMA and HSPA
                1.3.5.            3GPP2*
                1.3.6.            TD-SCDMA*
        1.4. IEEE 802 Systems
                1.4.1.            IEEE 802.11
                1.4.2.            IEEE 802.15 and Bluetooth
                1.4.3.            IEEE 802.16
        1.5. Network Security

2.    Orthogonal Frequency Division Multiple Access (OFDMA)
        2.1. Principles of Orthogonal Frequency Division Multiplexing
        2.2. OFDM Systems
                2.2.1.            Receiver Design
                2.2.2.            IEEE 802.11a/g
                2.2.3.            MB-OFDM, WiMedia, and Bluetooth 3.0
        2.3. MIMO OFDM
                2.3.1.            Beamforming
                2.3.2.            Spatial Multiplexing
                2.3.3.            Space-Time Codes
                2.3.4.            MIMO OFDM
                2.3.5.            IEEE 802.11n
        2.4. OFDMA
        2.5. MIMO OFDMA
        2.6. Mobile WiMAX
        2.7. Broadband Cellular
                2.7.1.            IEEE 802.16m
                2.7.2.            IMT-Advance
                2.7.3.            3G LTE and UMB

3.    Technology toward 4G Wireless
        3.1. Cooperative Communications
        3.2. Cognitive Radio Networks
                3.2.1.            Software Radio and Re-configurable Networks
                3.2.2.            Spectrum Sensing
                3.2.3.            Dynamic Spectrum Access
                3.2.4.            Network Layer Structure
                3.2.5.            Trust and Security

* may not be included if time is not allowed.

Slides:
            Synopsis for this course 

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