熱管的性能不僅取決於幾何參數，如壁厚、管材料，還有工作流體之熱力性能，如潛熱，蒸汽壓力，粘度。熱管之操作參數壓力和真空也是很重要之影響性能之參數。本研究初步建立包括毛細結構的滲透度(Permeability),最大毛細半徑(Maximum Capillary Diameter)與孔隙比(Porosity)及熱管最大熱傳量之量測。此實驗數據將與HPPS軟體做比對。HPPS(Heat pipe program software熱管性能模擬軟體)是由台灣清華大學的先進冷卻散熱實驗室所發展的以毛細理論預測熱管性能之軟體，其設定參數包括輸入不同熱管材質、不同工作流體、真空度、填充量以及操作的溫度等，並計算出該熱管之最大熱傳量，以探討各項參數對性能影響的重要性。
本實驗量測H廠商與C廠商之毛細結構幾何參數，其滲透度為2.57×10-13m2、0.327×10-13m2，最大毛細半徑為8.08×10-6m、9.09×10-6m，孔隙比為0.559、0.621，本實驗室模擬散熱水平量測毛細結構之熱管最大熱傳量，以H廠商外徑6φ的銅粉之燒結毛細結構熱管比較實驗室自製的熱管，其工作流體為水，固定操作溫度50℃，填充量30%時，最大熱傳量為45W；H廠商生產的熱管在同樣條件下之最大熱傳量為25W。真空度從1torr到10-4torr時最大熱傳量從35W增加到45W。

Performance of heat pipe not only depends on geometry, such as wall thickness, pipe material, but also the thermal properties of the working fluid, such as latent heat, vapor pressure, viscosity, pressure and vacuum. We develop a experiment for Permeability, Maximum Capillary Diameter, Porosity, and the maximum of heat transfer. These experimental data will compare with HPPS. HPPS (heat pipe performance Simulation program software) is a software made by the advanced cooling heat laboratory Taiwan Tsinghua University to predict heat pipe performance with capillary structure theory , and its parameters include various heat pipe materials, different working fluids, vacuum degree, filling volume and operating temperature setting. Maximum heat transfer in different condition such as vacuum different degrees, or filling volume can be measured by experiments. importance of each parameters can also be discussed.
Experiment for heat pipe’s wick geometric parameters of H company and C company. The Permeability of two company is 2.57×10-13m2、0.327×10-13m2 The Maximum Capillary Diameter of two company is 8.08×10-6m、9.09×10-6m The Porosity of two company is 0.559、0.621. Experiment the maximum of heat transfer with standard way, compare with 6φ sintered copper heat pipe of H company and the self made heat pipe. When the working fluid is water in 50℃ with filing volume 30% the maximum heat transfer is 45W; Under the same conditions the maximum heat transfer is 25W of H company. When vacuum from 1torr to 10-4torr, the maximum heat transfer will from 35W to 45W.

摘要 II
Abstract I
致謝 II
目錄 III
圖目錄 IV
表目錄 VI
符號表 VI
第一章 緒論 1
1-1前言 1
1-2文獻回顧恩 4
第二章 毛細結構幾何參數 10
2-1毛細結構物特性與熱力性質 10
2-1-1燒結結構之理論滲透度Kw模式與傳導性Kwick 12
2-1-2溝槽結構之理論滲透度Kw模式與傳導性Kwick 14
2-1-3金屬結構之理論滲透度Kw模式與傳導性Kwick 17
2-2毛細結構實驗與設備 18
2-2-1滲透度(Permeability, Kw) 19
2-2-2最大毛細半徑(Maximum Capillarity Radius,rc) 20
2-2-3孔隙比(Porosity,ε) 22
2-3毛細結構幾何參數實驗結果 24
2-3-1滲透度(Permeability)Kw 24
2-3-2最大毛細半徑(Maximum Capillary Radius) rc 25
2-3-3孔隙比(Porosity) ε 25
第三章 最大熱傳量實驗測量與設備介紹 27
3-1毛細結構熱管最大熱傳量量測設備與儀器 28
3-1-1熱管最大熱傳實驗步驟 31
3-1-2熱管量測軟體 34
3-2熱管製造流程 35
3-2-1熱管填充及封管設備與方法 35
第四章 實驗結果與討論 42
4-1 HPPS之應用 42
4-1-1不同填充率、工作流體為水對毛細熱管最大熱傳量的實驗與理論之比較 46
4-1-2 H廠商熱管的量測與比較 49
4-2-1不同真空度對毛細結構熱管最大熱傳量之實驗與理論比較 51
第五章 結論 54
參考文獻 55

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