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	潘煌鍟  教授 E-mail: pam [at] nkust.edu.tw 電話: 07-3814526轉15231		研究方向 (Research Interests) 結構健康監測 (Structural Health Monitoring) 智慧壓電水泥和壓電感測器 (Smart Piezoelectric Cement and Piezoelectric Sensors) 超高性能混凝土 (Ultra High Performance Concrete, UHPC) 水泥基結構超級電容器 (Cement-based structural supercapacitors) 發表著作 (Publications) Paper/[Book] Year Citation [221]. Determination of Interfacial Transition Zone of Cementitious Materials by ESPI. [220]. Empirical Formulation for Age-Dependent Piezoelectric and Dielectric Properties of PZT/Cement Composites. [219]. Monitoring the Concrete Strength Using Piezoelectric Cement Sensor-Based Electromechanical Impedance. [218]. Effect of Alkali Equivalent on the Electrochemical Properties of Alkali-Activated Supercapacitors. (2027) [217]. Research on the Engineering Properties of Biomineralized Waste Tire Rubber Fine Aggregate Concrete. (2026) [216]. 壓電陶瓷感測器用於混凝土中性化監測. (2026) [215]. Characteristics of PZT/Alkali-Activated Composites for Piezoelectric Sensors. (2026) [214]. Effect of Seawater Curing on the Engineering Properties of Alkali-Activated BFS Mortar. (2026) [213]. An Initial Analysis of Improvement Measures (IMs) for CCE Industry's Female Labour Participation in Taiwan. (2026) 優秀論文2026-ICEIB [212]. Dynamic Tensile Behavior of Ultra-High Performance Concrete Reinforced with Steel Fibers Under Quasistatic to High Strain Rates. (2026) [211]. Effect of CO2 Curing on the Engineering Properties of Moratr Incorporating Recycled Aggregate. (2026) [210]. 海水養護對鹼激發砂漿抗壓強度之影響. (2025) [209]. 以爐石與飛灰為膠結材料之配比參數對鹼激發砂漿抗壓強度之影響. (2025) [208]. 鹼激發輕質砂漿工程性質之研究. (2025) [207]. 養護濕度對水泥基壓電複合材料性質影響. (2025) [206]. 鋯鈦酸鉛陶瓷感測器應用於鹼激發砂漿強度監測. (2025) [205]. Effect of Free Water on Polarization and Piezoelectric Coefficients of Cement-Based Piezoelectric Composites During Manufacturing Process. [https://doi.org/10.4028/p-5qsFns] (2025) [204]. The Factors of Gender Inequity in Employment in the A/E/C Industry in Taiwan: Report-Reflexive Evidences from a Survey. (2025) [203]. Feasibility Study of Precoated Binder Type Electric Arc Furnace Oxidizing Slags as Aggregates for Cement Mortar. [DOI: 10.1007/978-3-031-69626-8_11] (2025) [202]. 玻璃粉對水泥基壓電複合材料壓電性質影響. [DOI:10.6652/JoCICHE.202412_36(8).0006] (2024) [201]. Piezoelectric Properties and Electromechanical Impedance of Piezoelectric Cement as a Sensing Material. (2024) [200]. 基於快速氯離子滲透試驗之硬固混凝土游離性氯離子含量評估. (2024) [199]. 國軍內部緊急應變體制及措施精進作為. (2024) [198]. 電信公司人孔局限空間作業導入科技防災作為. (2024) [197]. 建築工程地梁鋼筋組立施工風險評估. (2024) [196]. Two-Phase Three-Median (2P3M): The 2P3M Approach and Its Application. (2024) [195]. Rebar Corrosion Monitoring in Concrete Using Piezoelectric Cement Sensors. [DOI:10.1007/9783031533891_100] (2024) 1次 [194]. Effect of Steam Curing on the Compressive Strength of Concrete with Blast Furnace Slag. [https://doi.org/10.1007/978-981-99-9227-0_38] (2024) [193]. 以鋯鈦酸鉛感測器監測三維列印混凝土列印性質. (2023) [192]. 超高性能混凝土動態拉伸力學行為研究. (2023) [191]. AI與傳統門禁對營造業職場安全管理. (2023) [190]. 沉箱、基礎深開挖施工風險評估之實施-以台20線78K+500寶來一橋改建工程為例. (2023) [189]. Effect of Epoxy Resin and Barium Zirconate Titanate Contents on Piezoelectric Properties of 0-3 Barium Zirconate Titanate-Portland Cement Composite with Epoxy Resin Addition. [DOI:10.1016/j.ceramint.2023.02.188] (2023) 7次 [188]. Piezoelectric Cement Sensor-Based Electromechanical Impedance Technique for the Chloride Ion Content Monitoring of Hardened Concrete. [https://doi.org/10.1117/12.2658308] (2023) [187]. Effect of Water to Cement Ratio on Acoustic Impedance, Microstructure, and Piezoelectric Properties of 0-3 Barium Zirconate Titanate-Portland Cement Composite with Epoxy Resin Addition. [DOI:10.1016/j.materresbull.2022.112078] (2023) 8次 [186]. [橋梁工程施工實務] (2022) [185]. Effect of Graphene on Piezoelectric Properties of Cement-Based Piezoelectric Composites. [DOI:10.1016/j.sna.2022.113882] (2022) 27次 [184]. Durability of Lightweight Aggregate Concrete Incorporating High Volume Fly Ash. (2022) [183]. 壓電水泥監測三維列印混凝土的列印性質和有效監測頻率. (2022) [182]. 壓電水泥感測器應用在混凝土結構之氯離子含量監測技術. (2022) [181]. 逆打工法地下室開挖施工安全評估-以臺北市某大樓新建工程為例. (2022) [180]. TCI優質學術期刊研究分享. (2022) [179]. Stress and Strain Behavior Monitoring of Concrete Through Electromechanical Impedance Using Piezoelectric Cement Sensor and PZT Sensor. [DOI:10.1016/j.conbuildmat.2022.126685] (2022) 81次 [178]. 2021台灣混凝土學會暨混凝土工程研討會11/18舉行. (2022) [177]. 微鋼纖維對超高性能混凝土拉力行為之研究. (2021) [176]. 熱處理對添加飛灰壓電水泥之壓電性質影響. (2021) [175]. 添加爐石對經熱處理0-3型水泥壓電複合材料之性質影響. (2021) [174]. 使用直接拉伸及雙向壓孔試驗對UHPC張力行為之比較. (2021) [173]. 監造單位以編碼表單在模板工程的安全衛生查核. (2021) [172]. 應用構件預鑄化降低營造業職災風險之探討. (2021) [171]. 台灣營造業男性從人力斷層及薪資低下之因應對策. (2021) [170]. Rudder Profiles of Power-Free Underwater Vehicle for Kuroshio Power Generation. [DOI:10.14455/ISEC.2020.7(2).ENR-02] (2020) 3次 [169]. Piezoelectric Properties of Cement Piezoelectric Composites Containing Nano-Quartz Powders. [DOI:10.14455/ISEC.2020.7(2).SUS-02] (2020) 4次 [168]. 紊流效應對黑潮無動力載具舵片水平配置影響之探討. (2020) [167]. [結構分析] /譯 [---ISBN 9789863782575] (高立圖書) (2020) [166]. 壓電水泥感測器應用於RC結構物鋼筋腐蝕監測. (2020) [165]. 壓電水泥感測器監測硬固混凝土氯離子濃度技術. (2020) [164]. Piezoelectric Cement Sensor-Based Electromechanical Impedance Technique for the Strength Monitoring of Cement Mortar. [DOI:10.1016/j.conbuildmat.2020.119307] (2020) 97次 [163]. Influence of Water-to-Cement Ratio on Piezoelectric Properties of Cement-Based Composites Containing PZT Particles. [DOI:10.1016/j.conbuildmat.2019.117858] (2020) 42次 [162]. 添加氧化石墨烯對水泥壓電複合材料壓電性質的影響. (2019) [161]. 探討水泥基壓電複合材料微觀結構特性與壓電性質之研究. (2019) [160]. A Case Study of Urban Road Subsidence Induced By the Underground Connection of the Shield Tunneling Method. (2019) 2次 [159]. 使用壓電水泥與機電阻抗技術監測砂漿和混凝土強度. (2019) 論文獎2020-土木水利工程學刊 [158]. Composite Approach for Strain-Rate Sensitivity of Reactive Powder Concrete with Steel Fibers. (2019) [157]. Performance Evaluation of a Rocking Steel Column Base Equipped With Asymmetrical Resistance Friction Damper. (2019) 14次 [156]. 施工架作業安全管理與案例探討. (2019) [155]. Piezoelectric Cement Sensor and Impedance Analysis for Concrete Health Monitoring. (2019) 9次 [154]. The Assessment of Temperatures Dissipation During the Hot Mix Asphalt Concrete Construction in Conjunction with a Multilayered Pavement Temperature Monitoring Stations. (2019) [153]. 機電阻抗法應用於水泥砂漿強度預測. (2018) [152]. 使用壓電水泥感測器監測水泥砂漿應力-應變關係. (2018) [151]. 石墨烯分散對水泥壓電複合材料壓電性質的影響. (2018) [150]. 使用壓電水泥感測器監測不同水灰比水泥砂漿強度. (2018) [149]. The Evaluation of Skid Resistance with Various Film Thickness of Moisture in Dense-Graded Asphalt Mixture. (2018) [148]. The Pilot Study in Processing and Piezoelectric Properties of Asphalt-Based PZT Composites. (2018) [147]. Seismic Performance Evaluation of the Steel Column Base with an Asymmetrical Friction Damper. (2018) [146]. 奈米石英粉對0-3型水泥壓電複合材料壓電性質的影響. (2017) [145]. PZT級配對0-3型水泥壓電複合材料的性質影響. (2017) [144]. 壓電水泥感測器製作與力電性質. (2017) [143]. 矽藻土含量對水泥壓電複合材料壓電性質的影響. (2017) [142]. Strength Analysis for the Rudder of Power-Free Underwater Vehicle in Kuroshio Subjected to Typhoon Waves. (2017) 1次 [141]. 壓電水泥感測器監測水泥砂漿強度發展. (2017) [140]. 房地產投資報酬評估-以高雄仁武為例. (2017) [139]. Curing Time and Heating Conditions for Piezoelectric Properties of Cement-Based Composites Containing PZT. (2016) 34次 [138]. High Piezoelectric and Dielectric Properties of 0-3 PZT/Cement Composites by Temperature Treatment. (2016) 56次 [137]. 應用形狀記憶合金之自復位鋼構梁柱接頭開發. (2016) [136]. 壓電陶瓷含量對水泥壓電複合材料壓電與力電性質的影響. (2016) [135]. 級配PZT對0-3型水泥壓電複合材料壓電性質的影響. (2016) [134]. 非對稱摩擦系統之開發性能評估. (2016) [133]. 淺談滑動模板工程-以火力發電廠筒式煤倉工程為例. (2016) [132]. 以CFRP束制鋼梁局部挫曲行為之效能評估. (2016) [131]. The Nondestructive Evaluation of High-Temperature Conditioned Concrete in conjunction with Acoustic Emission and X-ray Computed Tomography. (2016) 6次 [130]. Causes of Explosion in Section C of the Diversion Tunnel Under Construction at Zengwen Reservoir. (2016) [129]. 水灰比對0-3型水泥壓電複合材料壓電性質的影響. (2015) [128]. 水泥壓電感測器的力電性質. (2015) 優秀論文2015-TCI [127]. 矽藻土水泥壓電材料壓電性質. (2015) [126]. 點石成金-2015臺灣創意混凝土競賽活動. (2015) [125]. 隧道開挖爆炸之主動式預防-以「曾文水庫越域引水工程計畫」職災為例. (2015) [124]. High Piezoelectric Properties of Cement-Based Piezoelectric Composites Containing Kaolin. (2015) 10次 [123]. [彈性力學] [---ISBN 9789868558373] (太普公關) (2014) [122]. 顯微結構與水泥壓電複合材料壓電性質. (2014) [121]. 水灰比對0-3型矽灰/水泥壓電複合材料壓電性質的影響. (2014) [120]. 含水狀態爐石活性粉混凝土磨耗和力學性質. (2014) [119]. Piezoelectric Properties of Cement-Based Piezoelectric Composites Containing Fly Ash. (2014) 6次 [118]. 台灣土石流防救災策略與機制探討. (2014) [117]. Effect of Aged Binder on Piezoelectric Properties of Cement-Based Piezoelectric Composites. (2014) 19次 [116]. 卜作嵐材料對混凝土阻尼係數的影響. (2013) [115]. 0-3型矽灰水泥壓電複合材料壓電性質. (2013) [114]. Age Effect on Piezoelectric Properties of Cement-Based Piezoelectric Composites Containing Slag. (2013) 4次 [113]. Attack Angle and Strength of Rudders for Power-Free Underwater Vehicle in Kuroshio. (2013) 2次 [112]. New Waterwheel Blades for Power Generation in Kuroshio. (2013) 2次 [111]. Influence of Pozzolanic Materials on 0-3 Cement-Based Piezoelectric Composites. (2013) 11次 [110]. 適用在黑潮洋流發電之水渦輪機葉片. (2012) [109]. 洋流發電防止水下海生物附著塗料比較. (2012) [108]. Rudder Controlling of Underwater Vehicle Using in Kuroshio. (2012) 5次 [107]. Effect of Pozzolanic Materials and Poling Field on Electromechanical Coupling Coefficient of Cement-Based Piezoelectric Composites. (2012) 3次 [106]. 洋流發電水下海生物附著分析. (2012) [105]. 核能反應爐搬運作業安全研究. (2012) [104]. Investigation on the Age-Dependent Constitutive Relations of Mortar. (2012) 15次 [103]. 學生就應善盡認真學習的學生本份. [高雄應用科技大學 頂尖高手5~專訪] (2011) [102]. 添加爐石對0-3型水泥壓電複合材料壓電與介電性質影響. (2011) [101]. 活性粉混凝土界面過渡區位移與耐久性. (2011) [100]. 爐石活性粉混凝土的動態力學性質與耐久性. (2011) [99]. Properties of Coconut Fiber/Rubber Cement Board for Building Partitions. (2011) 3次 [98]. Mechanical Properties of Steel Fiber Reinforced Reactive Powder Concrete Following Exposure to High Temperature Reaching 800 oC. (2011) 388次 [97]. Static-Dynamic Properties of Reactive Powder Concrete with Blast Furnace Slag. (2011) 10次 [96]. Comparison of Various Electrode Instrumentations for Electrical Measurement of Cement-Based Materials. (2011) [95]. Determination of Interfacial Transition Zone in Cementitious Materials by Dynamic Displacement. (2011) [94]. 0-3型PZT水泥基壓電複合材料製程與極化行為(Manufacturing and Polarization Process of 0-3 Cement-Based PZT Composites). (2011) 10次 [93]. 輕鋼構低層住宅施工與危害因子. (2010) [92]. 養護溫度對 0-3型PZT矽灰水泥壓電性質的影響. (2010) [91]. 爐石活性粉混凝土韌性性質. (2010) [90]. Composite Approach to High Strain-Rate Stress-Strain Curve of Reactive Powder Concrete. [ACF 2010, Proceedings of the 4th ACF International Conference] (2010) 1次 [89]. Desulfurization Slag/Granulated Blast Furnace Slag Binder and Mortar without Portland Cement. (2010) [88]. Electrical Resistivity Measurement of Cement-Based Binders Using Embedded Four-Terminal Probe Method. (2010) 6次 [87]. ESPI Measurement to Determine Interfacial Transition Zone in Cementitious Materials under Temperatures. (2010) [86]. Study on the Strain-Rate Sensitivity of Cementitious Composites. (2010) 20次 [85]. Effect of Temperature to Micro-Displacement of Interfacial Transition Zone in Cementitious Materials by ESPI Measurement. (2010) 2次 [84]. 建築節能分析與視覺化模擬之研究. (2010) 1次 [83]. 鋼纖維含量對RPC彎曲強度與韌性之比較. (2010) [82]. 高溫作用後鋼纖維活性粉混凝土殘留強度與變形性能.(Residual Strength and Deformation of Steel Fiber Reinforced Reactive Powder Concrete After Elevated Temperature) (2010) 5次 [81]. 0-3型鋯鈦酸鉛水泥基材料極化行為. (2009) [80]. 應用類神經網路模式預測鋼筋混凝土深樑之剪力強度. (2009) [79]. 高溫作用後鋼纖維活性粉混凝土應力-應變行為-理論模擬. (2009) [78]. 高溫作用後鋼纖維活性粉混凝土應力-應變行為-試驗研究. (2009) [77]. Properties of natural fiber cement boards for building partitions. (2009) 5次 [76]. Effect of Micro and Nano-Cracks for the Mechanical Properties of Cementitious Materials. (2009) 2次 [75]. 活性粉混凝土高溫作用後動態力學行為與破壞模式. (2009) [74]. Micromechanics-Based Predictions on the Overall Stress-Strain Relations of Cement-Matrix Composites. (2008) 16次 [73]. Composite-Based Approach for Strain-Rate Sensitivity of Stress-Strain Curves of Cement-Matrix Composites. [The 3rd ACF International Conference-ACF/VCA 2008] (2008) [72]. 熱熔塑膠輕質混凝土配比對工程性質之影響. (2008) [71]. 使用ESPI量測加溫材料的微變位. (2008) [70]. 微奈米裂縫對水泥系材料韌性的影響. (2008) [69]. 活性粉混凝土在不同應變速率動態下的應力-應變行為. (2008) [68]. 輕量安全帶掛鉤研發. (2008) [67]. 模擬鋼筋混凝土腐蝕殘留應力. (2008) [66]. The Accelerated Method for Estimating Corrosion of Reinforced Concrete Structure in Seawater. (2008) 4次 [65]. 雨水下水道鑄鐵清掃孔蓋替代材料分析與評估. (2008) [64]. 回憶金門技術學院規劃及開發. [金門大學建校十年紀念集] (2007) [63]. [施工安全與環境管理] [---ISBN 9789572159965] (全華圖書) (2007) [62]. [工程數學] [---ISBN 9789572999936] (太普公關) (2007) [61]. 模擬水泥壓電複合材料的壓電應變常數. (2007) [60]. 水泥系材料含孔隙和裂縫的微觀與力學行為. (2007) [59]. Determination of Representative Crack Density of Cementitious Materials. (2007) 1次 [58]. 黏土基添加奈米級氧化鋯的力學性質. (2007) [57]. Use of Waste Bricks and Tiles as a Pozzolan-like Material in Concrete. (DOI:10.14359/18733) (2007) 1次 [56]. 應用影像分析量測輕質多孔混凝土孔隙率之探討. [第二屆海峽兩岸輕骨料混凝土產製與應用技術研討會, pp. 215-226] (2006) 優秀論文獎-張朝順 [55]. Micromechanics Approach for Long-Term Stress-Strain Relationships of Cement-Matrix Composites. (2006) [54]. Solid-Particle Abrasion of Hydraulic Concrete. (2006) 1次 [53]. 微觀力學法模擬水泥基複合材料長期應力應變行為. (2006) [52]. 驗證高性能水泥基複合材料微裂縫密度計算方法. (2006) [51]. Increasing the Compressive Strength of High Performance Concrete by Adding Nano-Silica Powder. (2006) [50]. [Mechanics of Composite Materials] (2006) [49]. Effect of Nano-Silica Powder on the Durability Properties of High Performance Concrete. (2005) [48]. Zirconia Strengthened High Performance Concrete. (2005) [47]. [Elasticity]. (2005) [46]. 氧化鋯對高性能水泥基之韌性研究. (2004) [45]. Long-Term Stress-Strain Relations of the Cement-Matrix Composite. (2004) [44]. 氧化鋯混凝土韌性強化之研究--微裂縫機制. (2004) [43]. 石膏含量與型式對含強塑劑水泥漿流動性質之影響. (2004) [42]. 氧化鋯強化高性能混凝土樑韌性. (2004) [41]. 氧化鋯強化高性能混凝土. (2004) [40]. 水泥中鹼當量對含強塑劑水泥漿流變行為之影響. (2004) [39]. [工程數學]. (2004) [38]. 認識奈米世界. [進修學院專刊] (2003) [37]. 水泥基複合材料應力-應變曲線力學模式. (2003) [36]. Stress-Strain Relationship of Damaged Solids Containing Elliptic Cracks. (2003) [35]. Influence of the Constituents on the Elastic Moduli and the Strength of Concrete. (2003) [34]. Transformation Toughening of a Two-Phase, Transversely Isotropic Solid. (2003) 2次 [33]. 輸氣混凝土的韌性及彈性模數. (2002) [32]. 氧化鋯混凝土韌性強化之研究. (2002) [31]. Effective Toughness of Damaged Solids Containing Ribbon Cracks. (2002) 1次 [30]. 孔隙對高性能混凝土彈性模數之影響. (2002) [29]. 強塑劑對C3A水化行為之影響. (2002) [28]. A Micromechanical Theory for the Determination of the Stress-Strain Relation of Cement-Matrix Composites. (2002) [27]. 氧化鋯混凝土可行性之研究. (2002) [26]. A Micromechanics Theory for the Transformation Toughening of Two-Phase Ceramics. [10.1007/BF01188741] (2002) 6次 [25]. The Toughness and Elastic Moduli of Rigid-Reinforced Composites. (2001) [24]. 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