傳統溫度對材料影響之力學研究，係將試體放入高溫爐中加溫至預設溫度，僅能得到單一溫度影響之巨觀破壞參數為主要探討對象。本研究透過連續性高溫試體準備方式，獲得連續性材料破壞分佈後，進行間接拉力與破壞韌度試驗，並耦合同步化聲射法（Acoustic Emission, AE）、電子斑紋干涉術（Electronic Speckle Pattern Interferometry, ESPI）二種非破壞性檢測技術，探尋材料於試驗下之完整加載歷程與巨、微觀破壞行為關係。
藉由改變顆粒材大小（D50=1.0、0.2mm）、不同連續溫度區間為變數，進行系列之半圓盤破裂韌度與間接拉力試驗之完整加載歷程；AE訊號與破壞演化特徵之關聯性探討，並同步ESPI比對，為本研究主軸。
由人造類岩之水泥砂漿之破壞行為顯示，巨觀方面之溫度效應作用下，水泥基質材料受溫度作用後會產生不同之物理及化學變化，溫度作用於200℃後，試體內部C-S-H膠體，會變成C-S+H2O，試體內部開始產生孔隙。溫度達500℃時，Ca(OH)2變成CaO+H2O和水泥體積產生0.5%膨脹量。試體內部之石英砂，於573℃時，會產生相變化，則產生0.4%體積膨脹量，致使石英結構粉碎，KIC與間接拉強度隨溫度增加而遞減，材料臨界破壞溫度450~500℃之間。
微觀檢測結果顯示，AE事件數之多寡則受顆粒材大小與溫度作用影響甚鉅，AE事件數隨著溫度增加有遞減之趨勢。利用非破壞性檢測技術ESPI求算破裂韌度與破壞性半圓盤破裂韌度試驗，兩者結果相當接近，證實此光學位移法知適確性。

The material mechanic research of traditional temperature which put the specimen into high temperature furnace and heat it to the preset temperature can only obtain single temperature effect of the macroscopic fracture mechanism. This research obtain the continuity material damage distribution through continued heat treatment, and to do the BZ test and SCB test, also build to couple two nondestructive techniques: AE(acoustic emission) and ESPI (electronic speckle pattern interferometry), to find out the complete loading history and the damage relationship between macroscopic and microscopic of the material.
The research also do the B.Z. test and SCB test by using different grain size and different ranges of temperature as variables.
If the components in the material are subjected to heat treatment, the components will reveal different chemical and physical changes. For example, the cements around 200℃, the C-S-H becomes C-S+H2O. The temperature elevated up around 500℃,the Ca(OH)2 becomes CaO+H2O and the volume of cement material decreases 0.5%. For siliceous aggregate, the quartz is main component , it is changed from  to  phase around 500℃and the volume of quartz increases 0.4%.
The increase of temperature caused KIC and tensile strength to decrease, the material fracture made the critical temperature to be around 450 to 500 ℃.
According to microscopic test result, the grain size and temperature affect AE event very much. AE event decrease while temperature increase. The research got the similar result by using ESPI and SCB test to calculate KIC. Therefore, the research also confirm the feasibility of this method.

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