本研究探討廢棄大理石與花崗岩等天然岩石粉末的遠紅外線放射性質、釋放機制，並藉由熱處理提高樣品的遠紅外線放射率。本研究將廢棄岩石粉末進行不同溫度的熱處理，將熱處理後的岩石粉末混合環氧樹脂形成複合材料，再進行放射率量測，以探討不同熱處理溫度對於岩石粉末遠紅外線放射率的影響。
遠紅外線促進生物生長之原因源自於遠紅外線光子能量可破壞水分子間氫鍵進而細化水分子團。而較小的水分子團有助於促進細胞對於水分的吸收，也可增進生物對於水分之循環運輸。為了證實遠紅外線對水分子團的細化效果，本研究進行NMR量測水分子O17頻譜之半高寬以呈現水分子團之尺寸。實驗結果顯示，經過遠紅外線照射，水分子團尺寸確有下降。
本實驗進行EPR量測以觀察岩石粉末在乾燥與潮溼下頻譜峰值變化。結果顯示，在潮濕情況下氧空缺峰值降低，導致遠紅外線釋放能力減弱。為確保岩石粉末的乾燥，本實驗將岩石粉末加入環氧樹脂(Epoxy)基材製成複合材料，以增加其應用範圍與實用性。此外，本實驗以FLIR進行樣品表面溫度量測，可發現隨添加量增加表面溫度也隨之提高，但添加量至一定比例後呈現飽和現象。
為了證實遠紅外線對於生物生長的影響，本實驗進行綠豆種植實驗。除拍照記錄外，也以實驗數據定量紀錄豆芽長度與時間的關係。從本實驗可觀察到隨著岩石粉末添加濃度上升，綠豆的平均生長速率隨之提高，可見岩石粉末產生的遠紅外線確實可加速植物生長。

This study investigates the far-infrared emissivity properties of natural rock powders such as marble and granite, and improves the far-infrared emissivity of samples by heat treatment. The waste rock powders are heat-treated at different temperatures, and are then mixed with epoxy resin to make composite materials. The emissivity is measured to explore influence of different heat treatment temperatures on the emissivity of the rock powders.
The reason why far-infrared rays can promote biological growth comes from the fact that the photon energy of far-infrared rays can break the hydrogen bonds between water molecules thus reducing cluster size of water molecules; the smaller the water molecular clusters the faster the absorption, circulation and transportation of water by cells and organisms. In order to verify the effect of far-infrared rays on the refinement of water molecular clusters, this study has carried out NMR measurement to probe the full width at half maximum of the O17 spectrum of water molecules which give information regarding to the size of water molecular clusters. Experimental results show that after far-infrared irradiation, the size of water molecular clusters truly decreases.
EPR measurement is also carried out to study spectrum variation of rock powders under dry and wet conditions. Results show that the peak arising from oxygen vacancies is weak in wet condition which in turn reduces far-infrared emissivity. In order to protect rock powders from moisture the epoxy resin is mixed with rock powders to make composites which widens application range and practicability. In addition, surface temperature is realized to increase with content of rock powders and becomes stabilized at a certain proportion.
The influence of far-infrared rays on vegetable growth is studied by planting mung beans in ambient conditions, along with in-situ photographing and recording. The average growth rate of mung beans increases with far-infrared rays produced by rock powders and the relationship between average length of bean sprouts and growing time is uncovered.

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