近年來，台灣的無線上網的需求迅速的增加。因用戶大多是使用視訊通話或是觀看影音串流等需要高頻寬等需求，在無線資源有限的情況下如何去滿足大多數人的需求成為一個非常重要的議題。在無線資源管理中，排程器的設計是其中最主要的部份。故本論文提出一個能盡量滿足大多數使用者需求的排程機制，此機制能先判斷連線的種類是否需要即時的服務，在逾時之前將需求作處理。若是使用者處於收訊不好的環境，則其需求有較大的機會因避免浪費系統資源而被放棄掉，且飢餓(Starvation)跟公平性的問題也都被正視，不會有連線長期佔有資源與等待甚久不被服務的情況以期達到服務品質的保證。實驗結果將證明本文所提之方法會在執行時間效率上優於傳統之作法。

Recent years, the demands of wireless networks in Taiwan grow fast. Because of users almost take a cam call or watch  video streams on Youtube. How to fulfill most users’ demand under  limited wireless internet resources situation becomes an important issue. In wireless networks resource management, the design of schedulers is the most important part. This paper proposed a scheduling scheme that meets most users’ demands. This scheme distinguishes whether this connection is real-time or not.
Dealing it before it time out. If a user is located a cell edge, his demands may be rejected because of avoiding waste system resource. Besides Starvation and Fairness problems are also considered. There are no connections occupy resource for a long time or connections wait for a long time to be served to meet QOS(the quality of service). The experiment results will proof our method is efficiency than others.

目錄
第一章 緒論	1
1-1 研究背景	1
1-2 研究動機與目的	2
1-3 論文架構	4
第二章 相關背景與研究	5
2-1 LTE-A簡介	5
2-2 QoS簡介	7
2-3 相關演算法介紹	9
2-3-1 Round Robin (RR)	9
2-3-2 Maximum Carrier Interference (MAX C/I)	10
2-3-3 Proportional Fair (PF)	11
2-3-4 Modified Largest Weighted Delay First (M-LWDF)	13
2-3-5 Priority update granularity (PUG)	14
2-3-6 M-EDF-PF	14
第三章 以服務品質為基礎之公平性排程方法	15
3-1 前言	15
3-2 QFS架構與概念	18
3-3 連線判定	21
3-4 優先權調整	23
3-5 頻寬計算	25
3-6 頻寬分配	26
第四章 模擬與分析	28
4-1 模擬環境	28
4-2 模擬結果分析與比較	30
第五章 結論與未來研究方向	35
5-1 結論	35
5-2 未來研究方向	36
參考文獻	37
附錄–英文論文	40

圖目錄
圖 1 E-UTRAN架構	6
圖 2 LTE QoS參數標準	7
圖 3 RR排程示意圖	9
圖 4 MAX C/I排程示意圖	10
圖 5 PF排程示意圖	12
圖 6二維資源系統圖	16
圖 7 LTE-A訊框架構圖	16
圖 8下行排程程序	17
圖 9 QFS架構圖	19
圖 10 QFS流程圖	20
圖 11需求分類示意圖	22
圖 12資源分配流程圖	27
圖 13模擬場景示意圖	28
圖 14三種演算法的GBR吞吐量模擬結果	30
圖 15三種演算法的Non-GBR吞吐量模擬結果	31
圖 16封包延遲模擬	32
圖 17封包遺失率模擬	33
圖 18飢餓現象比較	34

表目錄
表 1模擬參數表	29

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