| 研究生: |
吳俊鴻 Wu, Chun-Hung |
|---|---|
| 論文名稱: |
防鎖死煞車模組之性能與耐久測試平台之設計與實現 Design and Realization of a Novel Performance and Durability Test Platform for Anti-lock Braking Modules |
| 指導教授: |
陳國聲
Chen, Kuo-Shen |
| 學位類別: |
碩士 Master |
| 系所名稱: |
工學院 - 機械工程學系 Department of Mechanical Engineering |
| 論文出版年: | 2018 |
| 畢業學年度: | 106 |
| 語文別: | 中文 |
| 論文頁數: | 172 |
| 中文關鍵詞: | 防鎖死煞車系統 、液壓調節單元 、測試系統設計 、性能測試 、耐久測試 |
| 外文關鍵詞: | anti-lock braking system, hydraulic control unit, performance test, durability test |
| 相關次數: | 點閱:86 下載:5 |
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防鎖死煞車系統 (ABS),能防止車輪鎖死打滑,大幅提高車輛的操控性及安全性。歐美各國法規已經其列為標配,我國近期也將跟進,國內相關生產者勢必因應此龐大商機,著手切入市場。伴隨著產品的開發而來的,是測試端的需求,必然須有一個可靠且實用的ABS測試平台。然而,對業界而言,所能購得之商用測試系統價格昂貴,對一般中小型廠商實屬沉重,此成本連帶影響了產品競爭力,且商用測試系統在保修、升級皆有不便之處;之於學界,雖然許多文獻已建立防鎖死然車系統的測試系統,但皆在測試其控制器邏輯的優劣,並未針對防鎖死煞車系統硬體模組本身的性能,這對研究防鎖死煞車系統硬體模組的性能及設計而言,是一大阻力。因此,本文提出一新的設計概念,欲彌補現有學術界與業界測試系統的不足,結合兩者之優點。本文設計、實現、驗證一多功能之ABS性能與耐久測試系統。其中包含液壓調節單元 (HCU) 的性能與耐久測試,以及電子液壓調節單元 (EHCU) 的耐久性測試。前者測試HCU的調壓性能規格,還有在連續作動後的規格變化,後者則是測試一商用ABS中,EHCU連續作動的耐久性。HCU性能測試,本文直接以電訊號驅動之,使之調節壓力,進而獲取性能指標,然後進行多次循環測試,驗證耐久測試的設計概念。EHCU的耐久性測試,本文先分析一商用EHCU,解構其訊號,再設計實現一電路能夠產生此輪速訊號,以此訊號驅動該EHCU,使之能不停作動,進行耐久測試。本測試系統包含兩種壓力源、兩個防鎖死煞車系統硬體,可由油路輕易在之中切換。此外,還有完善的感測器,除了作為耐久測試之監控重點,還能提供一般業界較少分析的資料,包括溫度及振動。測試系統經過初步驗證,可以獲得HCU的性能規相,亦證明了耐久測試概念的可行性。
In this work, a novel versatile test system with a complete sensorial system is designed and realized for fulfilling the performance and durability test of ABS. Unlike traditional approach using wheels, this system relies on electrical signal to trigger the action of ABS. This results in a simple, compact, and versatile design. The test mainly concerns the performance of the hydraulic control unit (HCU) of ABS by examining the hydraulic responses after receiving the command. Meanwhile, the durability test on the hydraulic-eletronic control unit (ECHU) is also considered. By using the fake wheel speed signal, EHCU are tested efficiently without bulky components such as wheels. In addition, two commercial Bosch ABS modules are used on the system as the test samples for the purpose of validation and demonstration. In parallel, the results of the HCU performance test are also compared with that obtained from a commercial test platform based on the same ABS unit. The test results are similar and this fact demonstrates the applicability of the designed system. In comparison with the corresponding commercial system, the designed system is relatively low cost, size compact, and more versatile in testing manner. In addition, the designed system is highly automatic that one can easy perform durability test without cumbersome procedures.
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