Dye-Sensitized Solar Cells Based on a Single-Crystalline TiO2 Nanorod Film

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    (8),
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    (4),
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    (50),
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    (16),
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    (27),
    275402

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    (2),

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    (3),
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  • Chih-Hung Tsai, Ping-Yuan Chuang, Hsiao-Lung Hsu

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  • T C Sabari Girisun, C Jeganathan, N Pavithra, S Anandan

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    (8),
    085605

  • Chih-Hung Tsai, Yu-Chen Hsiao, Ping-Yuan Chuang

    Coatings 2018 8
    (2),
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  • Lijian Meng, Tao Yang, Sining Yun, Can Li

    Chinese Physics B 2018 27
    (1),
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  • Chih-Hung Tsai, Po-Hsi Fei, Chia-Ming Lin, Shiao-Long Shiu

    Coatings 2018 8
    (1),
    21

  • Yun Hang Hu, Wei Wei

    2018,150-181

  • Jinxia Xu, Zhenhuan Wang, Wenqing Li, Xingang Zhang, Dong He, Xiangheng Xiao

    Nanoscale Research Letters 2017 12
    (1),

  • Monika Kwoka, Vardan Galstyan, Elisabetta Comini, Jacek Szuber

    Nanomaterials 2017 7
    (12),
    456

  • Selma M. H. Al-Jawad

    Journal of Electronic Materials 2017 46
    (10),
    5837-5847

  • Selma M.H. Al-Jawad

    Materials Science in Semiconductor Processing 2017 67, 75-83

  • Jesum A. Fernandes, Emerson C. Kohlrausch, Sherdil Khan, Rafael C. Brito, Guilherme J. Machado, Sérgio R. Teixeira, Jairton Dupont, Marcos J. Leite Santos

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  • Poulomi Roy

    2017,147-197

  • Jiang Sheng, Linhua Hu, Li’e Mo, Jichun Ye, Songyuan Dai

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    (6),
    822-828

  • Chih-Hung Tsai, Wei-Chih Huang, Wun-Shiuan Wang, Chun-Jyun Shih, Wen-Feng Chi, Yu-Chung Hu, Yuan-Hsiang Yu

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  • S Wahyuningsih, L Rinawati, R M I Munifa, A H Ramelan, Eko Sulistyono

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  • Rayees Ahmad Rather, Satnam Singh, Bonamali Pal

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    (35),
    21547-21555

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    (18),
    8155-8186

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    (3),
    520-528

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    2016,1-6

  • M.M. Yusoff, M.H. Mamat, M.F. Malek, A.S. Ismail, S.A. Saidi, M. Rusop

    2016,1-6

  • K. Mohan Kumar, S. Godavarthi, T.V.K. Karthik, M. Mahendhiran, A. Hernandez-Eligio, N. Hernandez-Como, V. Agarwal, L. Martinez Gomez

    Materials Letters 2016 183, 211-214

  • Yajie Wang, Chengbin Fei, Rong Zhang, Lixue Guo, Ting Shen, Jianjun Tian, Guozhong Cao

    MRS Communications 2016 6
    (03),
    226-233

  • Chih-Hung Tsai, Wei-Chih Huang, Yu-Chien Hsu, Chun-Jyun Shih, I-Jang Teng, Yuan-Hsiang Yu

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  • Sasipriya Kathirvel, Chaochin Su, Yung-Jen Shiao, Ya-Fen Lin, Bo-Ren Chen, Wen-Ren Li

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  • V.V. Burungale, V.V. Satale, A.J. More, K.K.K. Sharma, A.S. Kamble, J.H. Kim, P.S. Patil

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  • Yuan-Hsiang Yu, Wen-Feng Chi, Wei-Chih Huang, Wun-Shiuan Wang, Chun-Jyun Shih, Chih-Hung Tsai

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  • Masoud Iraj, Fatemeh Dehghan Nayeri, Ebrahim Asl-Soleimani, Keyvan Narimani

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  • Yue-Sheng LI, Zhi-Yong SONG, Jiang-Tao QIN, Hai-Tao HUANG, Yan HAN

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    Nanoscale Research Letters 2016,

  • Zhichun Yang, Waqar Ahmad, Liang Chu, Majid Raissan Al-bahrani, Fanfan Tu, Yumei Wang, Hang Zhang, Xi Wang, Jun Su, Nishuang Liu, Luying Li, Changping Yang, Yihua Gao

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    (60),
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  • Haitao Zhou, Lin Li, Dianli Jiang, Yingbing Lu, Kai Pan

    RSC Advances 2016 6
    (72),
    67968-67975

  • S.A. Mozaffari, M. Ranjbar, E. Kouhestanian, H. Salar Amoli, M.H. Armanmehr

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  • Jie Zhang, Yichuan Rui, Yaogang Li, Qinghong Zhang, Hongzhi Wang

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    (4),
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    (10.1002/adma.v27.16),
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    (10.1002/smll.v11.15),
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    (73),
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    (101),
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    (37),
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    (87),
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    (85),
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    (28),
    14699-14705

  • Eui-Hyun Kong, Yeon-Hee Yoon, Yong-June Chang, Hyun Myung Jang

    Materials Chemistry and Physics 2013 ,

  • Chih-Hung Tsai, Chin-Wei Chang, Yu-Tang Tsai, Chun-Yang Lu, Ming-Che Chen, Tsung-Wei Huang, Chung-Chih Wu

    Organic Electronics 2013 14, 2866-2874

  • Chih-Hung Tsai, Chun-Yang Lu, Ming-Che Chen, Tsung-Wei Huang, Chung-Chih Wu, Yi-Wen Chung

    Organic Electronics 2013 14, 3131-3137

  • Chin Yong Neo, Jianyong Ouyang

    Journal of Power Sources 2013 241, 647-653

  • Minhea Jin, Myeongkyu Lee

    Applied Surface Science 2013 282, 566-570

  • Chao Song, Xiangting Dong

    Russian Journal of Physical Chemistry A 2013 87, 1545-1549

  • Yongjian Jiang, Meicheng Li, Ruiqiang Ding, Dandan Song, Mwenya Trevor, Zhao Chen

    Materials Letters 2013 107, 210-213

  • Hua Yu, Jian Pan, Yang Bai, Xu Zong, Xinyong Li, Lianzhou Wang

    Chemistry – A European Journal 2013 , n/a-n/a

  • Ping-Lin Kuo, Tzung-Shiue Jan, Chun-Hou Liao, Chi-Chang Chen, Kun-Mu Lee

    Journal of Power Sources 2013 235, 297-302

  • Yin-Cheng Yen, Wen-Yin Ko, Jing-Zhi Chen, Kuan-Jiuh Lin

    Electrochimica Acta 2013 105, 142-148

  • Cunku Dong, Xin Li, Wei Zhao, Pengfei Jin, Xiujuan Fan, Jingyao Qi

    Chemistry – A European Journal 2013 19
    (10.1002/chem.v19.30),
    10046-10056

  • Jin-Woong Lee, Jung Oh Choi, Ji-Eun Jeong, Seungkyu Yang, Sung Hoon Ahn, Kee-Won Kwon, Caroline Sunyong Lee

    Electrochimica Acta 2013 103, 252-258

  • Kyoung-No Lee, Woo-Byoung Kim, Caroline Sunyong Lee, Jai-Sung Lee

    Bulletin of the Korean Chemical Society 2013 34, 1853-1856

  • Weixin Zhang, Gongde Chen, Zeheng Yang, Chunyan Zeng

    AIChE Journal 2013 59
    (10.1002/aic.v59.6),
    2134-2144

  • Brijesh Tripathi, Pankaj Yadav, Manoj Kumar

    Plasmonics 2013 ,

  • Qiuping Liu, Yang Zhou, Yandong Duan, Min Wang, Yuan Lin

    Electrochimica Acta 2013 95, 48-53

  • Xianmiao Sun, Qiong Sun, Qian Zhang, Qianqian Zhu, Hongzhou Dong, Lifeng Dong

    Journal of Physics D: Applied Physics 2013 46, 095102

  • Motonari Adachi, Ryo Tanino, Jun Adachi, Yasushige Mori, Katsumi Tsuchiya, Seiji Isoda, Fumio Uchida

    Journal of Power Sources 2013 226, 94-100

  • Qin Hu, Congcong Wu, Liqiang Cao, Bo Chi, Jian Pu, Li Jian

    Journal of Power Sources 2013 226, 8-15

  • Yu-Yen Kuo, Chao-Hsin Chien

    Electrochimica Acta 2013 91, 337-343

  • Xudong Wang, Jian Shi

    Journal of Materials Research 2013 28
    (03),
    270-279

  • Daesub Hwang, Horim Lee, Yongsok Seo, Dongho Kim, Seong Mu Jo, Dong Young Kim

    J. Mater. Chem. A 2013 1, 1359-1367

  • Xiaoyan Wang, Lidong Sun, Sam Zhang, Xiu Wang, Kaifu Huo, Jijiang Fu, Hairong Wang, Dongliang Zhao

    RSC Advances 2013 3, 11001

  • Xiao Yu, Hai Wang, Yong Liu, Xiang Zhou, Baojun Li, Ling Xin, Yu Zhou, Hui Shen

    J. Mater. Chem. A 2013 1, 2110-2117

  • Wenguang Cheng, Wenzhe Li, Shaofei Ji, Dandan Yang, Liduo Wang, Xiaozhong Qu, Chengliang Zhang, Fuxin Liang, Qian Wang, Jiaoli Li, Zhenzhong Yang

    Journal of Materials Chemistry A 2013 1, 8023

  • Daesub Hwang, Horim Lee, Yongsok Seo, Dongho Kim, Seong Mu Jo, Dong Young Kim

    Journal of Materials Chemistry A 2013 1, 1359

  • Kazuhiro Manseki, Yosuke Kondo, Takayuki Ban, Takashi Sugiura, Tsukasa Yoshida

    Dalton Transactions 2013 42, 3295

  • Yu Pin Lin, Sih Yin Lin, Yuan Ching Lee, Yui Whei Chen-Yang

    Journal of Materials Chemistry A 2013 1, 9875

  • Xiao Yu, Hai Wang, Yong Liu, Xiang Zhou, Baojun Li, Ling Xin, Yu Zhou, Hui Shen

    Journal of Materials Chemistry A 2013 ,

  • Luisa De Marco, Michele Manca, Roberto Giannuzzi, Maria R. Belviso, P. Davide Cozzoli, Giuseppe Gigli

    Energy & Environmental Science 2013 6, 1791

  • Brijesh Tripathi, Pankaj Yadav, Manoj Kumar

    Results in Physics 2013 3, 182-186

  • Na Li, Nengqian Pan, Danhong Li, Shiwei Lin

    International Journal of Photoenergy 2013 2013, 1-5

  • Jie Qu, Chao Lai

    Journal of Nanomaterials 2013 2013, 1-11

  • Chih-Hung Tsai, Yu-Tang Tsai, Tsung-Wei Huang, Sui-Ying Hsu, Yan-Fang Chen, Yuan-Hsuan Jhang, Lun Hsieh, Chung-Chih Wu, Yen-Shan Chen

    Journal of Nanomaterials 2013 2013, 1-12

  • Dharani Sabba, Nripan Mathews, Julianto Chua, Stevin S. Pramana, Hemant K. Mulmudi, Qing Wang, Subodh G. Mhaisalkar

    Scripta Materialia 2012 ,

  • Dajiang Zheng, Miaoqiang Lv, Shiping Wang, Wenxi Guo, Lan Sun, Changjian Lin

    Electrochimica Acta 2012 83, 155-159

  • Yuan-Hsuan Jhang, Yu-Tang Tsai, Chih-Hung Tsai, Sui-Ying Hsu, Tsung-Wei Huang, Chun-Yang Lu, Ming-Che Chen, Yan-Fang Chen, Chung-Chih Wu

    Organic Electronics 2012 13, 1865-1872

  • Yichuan Rui, Yaogang Li, Hongzhi Wang, Qinghong Zhang

    Chemistry – An Asian Journal 2012 7, 2313-2320

  • Runbang Tao, Takahiro Tomita, Raymond Albert Wong, Keiko Waki

    Journal of Power Sources 2012 214, 159-165

  • M.R. Mohammadi, R.R.M. Louca, D.J. Fray, M.E. Welland

    Solar Energy 2012 86, 2654-2664

  • Jae Hong Kim, Hee Suk Jung, Yong Seung Chi, Tae Jin Kang

    Solar Energy 2012 86, 2606-2612

  • Jinsoo Lee, Junghwan Yoon, Minhea Jin, Myeongkyu Lee

    Journal of Applied Physics 2012 112
    (4),
    043110

  • Min Wang, Shouli Bai, Aifan Chen, Yandong Duan, Qiuping Liu, Dianqing Li, Yuan Lin

    Electrochimica Acta 2012 77, 54-59

  • Sujatha Singh, Harjeet Kaur, V.N. Singh, Kiran Jain, T.D. Senguttuvan

    Sensors and Actuators B: Chemical 2012 171-172, 899-906

  • Meng Cui, Sha Tian, Hua Zhao, Rong Jin, Yan Chen, Bin Liu, Heqing Yang

    Physica E: Low-dimensional Systems and Nanostructures 2012 44, 2110-2117

  • Menglei Chang, Liangpeng Wu, Xinjun Li, Wei Xu

    Journal of Materials Science & Technology 2012 28, 594-598

  • Guotian Dai, Li Zhao, Shimin Wang, Jinhua Hu, Binghai Dong, Hongbing Lu, Jing Li

    Journal of Alloys and Compounds 2012 ,

  • Z.G. Shang, Z.Q. Liu, P.J. Shang, J.K. Shang

    Journal of Materials Science & Technology 2012 28, 385-390

  • Sui-Ying Hsu, Chih-Hung Tsai, Chun-Yang Lu, Yu-Tang Tsai, Tsung-Wei Huang, Yuan-Hsuan Jhang, Yan-Fang Chen, Chung-Chih Wu, Yen-Shan Chen

    Organic Electronics 2012 13, 856-863

  • Chieko Shimada, Koji Kitamura, Seimei Shiratori

    Japanese Journal of Applied Physics 2012 51, 044106

  • XIANWEI HUANG, PING SHEN, XIAOMING FENG, ZHUO TAN, BIN ZHAO, SONGTING TAN

    Nano 2012 07
    (02),
    1250010

  • 2012,151-197

  • R. S. Chen, C. A. Chen, H. Y. Tsai, W. C. Wang, Y. S. Huang

    Applied Physics Letters 2012 100
    (12),
    123108

  • Ning Liu, Kiyoung Lee, Patrik Schmuki

    Electrochemistry Communications 2012 15, 1-4

  • Jincheng Liu, Yinjie Wang, Darren Sun

    Renewable Energy 2012 38, 214-218

  • Ke Chen, Jingyi Li, Wenxi Wang, Yumin Zhang, Xiaojing Wang, Haiquan Su

    Materials Science in Semiconductor Processing 2012 15, 20-26

  • Guotian Dai, Li Zhao, Jing Li, Li Wan, Fan Hu, Zuxun Xu, Binghai Dong, Hongbing Lu, Shimin Wang, Jiaguo Yu

    Journal of Colloid and Interface Science 2012 365, 46-52

  • Yongseok Jun, Jong Hyeok Park, Man Gu Kang

    Chemical Communications 2012 48, 6456

  • Chih-Hung Tsai, Sui-Ying Hsu, Chun-Yang Lu, Yu-Tang Tsai, Tsung-Wei Huang, Yan-Fang Chen, Yuan-Hsuan Jhang, Chung-Chih Wu

    Organic Electronics 2012 13, 199-205

  • Weiguang Yang, Yali Wang, Weimin Shi

    CrystEngComm 2012 14, 230-234

  • Xiao Wang, Feng Hao, Huiyuan Chen, Gang Wang, Jianbao Li, Hong Lin

    Pure and Applied Chemistry 2012 , 1

  • Tianci Zhang, Xiaoye Hu, Ming Fang, Lide Zhang, Zhaoming Wang

    CrystEngComm 2012 14, 7656

  • Zhenhuan Zhao, Hong Liu, Shaowei Chen

    Nanoscale 2012 4, 7301

  • Eui-Hyun Kong, Yong-June Chang, Yoon-Cheol Park, Yeon-Hee Yoon, Hyun-Jin Park, Hyun Myung Jang

    Physical Chemistry Chemical Physics 2012 14, 4620

  • Ning Han, Fengyun Wang, Johnny C. Ho

    Nanomaterials and Energy 2012 1
    (1),
    4-17

  • H. J. Cho, D. Jung

    Bulletin of the Korean Chemical Society 2011 32, 4382-4386

  • Susana LA Andrade, Yilin Hu, Markus W Ribbe, Oliver Einsle

    2011,

  • Li Zhang, Yaogang Li, Qinghong Zhang, Guoying Shi, Hongzhi Wang

    Chemistry Letters 2011 40
    (12),
    1371-1373

  • Motonari Adachi, Katsuya Yoshida, Takehiro Kurata, Jun Adachi, Katsumi Tsuchiya, Yasushige Mori, Fumio Uchida

    Journal of Materials Research 2011 , 1-8

  • Tsai Chih-Hung, Hsu Sui-Ying, Huang Tsung-Wei, Tsai Yu-Tang, Chen Yan-Fang, Yuan Hsuan Jhang, Lun Hsieh, Wu Chung-Chih, Chen Yen-Shan, Chen Chieh-Wei, Li Chung-Chun

    Organic Electronics 2011 12, 2003-2011

  • Jang-Yul Kim, Tohru Sekino, Shun-Ichiro Tanaka

    International Journal of Applied Ceramic Technology 2011 8
    (10.1111/ijac.2011.8.issue-6),
    1353-1362

  • A. P. Caricato, M. R. Belviso, M. Catalano, M. Cesaria, P. D. Cozzoli, A. Luches, M. G. Manera, M. Martino, R. Rella, A. Taurino

    Applied Physics A 2011 105, 605-610

  • Jiang Sheng, Linhua Hu, Wenxin Li, Li’e Mo, Huajun Tian, Songyuan Dai

    Solar Energy 2011 85, 2697-2703

  • Qiaoying Jia, Wenxiu Que, Jin Zhang

    physica status solidi (a) 2011 208
    (10.1002/pssa.v208.10),
    2313-2316

  • Jiajie Fan, Weiquan Cai, Jiaguo Yu

    Chemistry – An Asian Journal 2011 6, 2481-2490

  • Eun-Yi Kim, Wan-In Lee, Chin Myung Whang

    Bulletin of the Korean Chemical Society 2011 32, 2671-2676

  • Difeng Qian, Yaogang Li, Qinghong Zhang, Guoying Shi, Hongzhi Wang

    Journal of Alloys and Compounds 2011 ,

  • Junghwan Yoon, Minhea Jin, Myeongkyu Lee

    Advanced Materials 2011 , n/a-n/a

  • Lijian Meng, Can Li, M. P. dos Santos

    Journal of Inorganic and Organometallic Polymers and Materials 2011 ,

  • Alexander C Santulli, Christopher Koenigsmann, Amanda L Tiano, Donald DeRosa, Stanislaus S Wong

    Nanotechnology 2011 22, 245402

  • Yu-Ching Hsu, Tony Chang Chi Wu, I-Chun Cheng, Jian-Zhang Chen, Mu-Rong Yang

    Japanese Journal of Applied Physics 2011 50, 06GF09

  • A.A. Aref, Liangbin Xiong, Nannan Yan, A.M. Abdulkarem, Ying Yu

    Materials Chemistry and Physics 2011 127, 433-439

  • Chun-Hou Liao, Wu-Tsung Shih, Chi-Chang Chen, Yuh-Lang Lee, Ping-Lin Kuo

    Thin Solid Films 2011 519, 5552-5557

  • Vivek Dhas, Subas Muduli, Shruti Agarkar, Abhimanyu Rana, Beatrice Hannoyer, Rahul Banerjee, Satishchandra Ogale

    Solar Energy 2011 85, 1213-1219

  • Marija Drev, Urša Opara Krašovec, Mateja Hočevar, Marko Berginc, Marjeta Kržmanc Maček, Marko Topič

    Journal of Sol-Gel Science and Technology 2011 ,

  • Ambily Mathew, G. Mohan Rao, N. Munichandraiah

    Materials Chemistry and Physics 2011 127, 95-101

  • Chun-Xia Zhao, Lizhong He, Shi Zhang Qiao, Anton P.J. Middelberg

    Chemical Engineering Science 2011 66, 1463-1479

  • Yunqian Dai, Wenying Liu, Eric Formo, Yueming Sun, Younan Xia

    Polymers for Advanced Technologies 2011 22, 326-338

  • Jang-Yul Kim, Tohru Sekino, Shun-Ichiro Tanaka

    Journal of Materials Science 2011 46, 1749-1757

  • J Caro

    2011,423-447

  • Luísa Andrade, Helena Aguilar Ribeiro, Adélio Mendes

    2011,

  • Sara Cavaliere, Surya Subianto, Iuliia Savych, Deborah J. Jones, Jacques Rozière

    Energy & Environmental Science 2011 4, 4761

  • Patcharee Charoensirithavorn, Takashi Sagawa, Shuzi Hayase, Susumu Yoshikawa

    Journal of Solar Energy Engineering 2011 133, 011101

  • Yu-Kai Han, Mei-Ying Chang, Wen-Yao Huang, Hsin-Yu Pan, Ko-Shan Ho, Tar-Hwa Hsieh, Sin-Yu Pan

    Journal of The Electrochemical Society 2011 158, K88

  • Zusing Yang, Chia-Ying Chen, Prathik Roy, Huan-Tsung Chang

    Chemical Communications 2011 47, 9561

  • Luisa De Marco, Michele Manca, Raffaella Buonsanti, Roberto Giannuzzi, Francesco Malara, Paola Pareo, Luigi Martiradonna, Nunzia M. Giancaspro, P. Davide Cozzoli, Giuseppe Gigli

    Journal of Materials Chemistry 2011 21, 13371

  • Xiangfeng Wei, Jiehua Liu, Yun Zhi Chua, Junling Song, Xue-Wei Liu

    Energy & Environmental Science 2011 4, 2054

  • Qiuliu Huang, Gang Zhou, Liang Fang, Lipeng Hu, Zhong-Sheng Wang

    Energy & Environmental Science 2011 4, 2145

  • Joo Hwan Koh, Jong Kwan Koh, Jin Ah Seo, Jong-Shik Shin, Jong Hak Kim

    Nanotechnology 2011,365401

  • Jijun Qiu, Fuwei Zhuge, Kun Lou, Xiaomin Li, Xiangdong Gao, Xiaoyan Gan, Weidong Yu, Hyung-Kook Kim, Yoon-Hwae Hwang

    Journal of Materials Chemistry 2011 21, 5062

  • Huei-Siou Chen, Chaochin Su, Ji-Lian Chen, Tsai-Yin Yang, Nai-Mu Hsu, Wen-Ren Li

    Journal of Nanomaterials 2011 2011, 1-8

  • Daiki Nagamatsu, Takashi Nemoto, Hiroki Kurata, Jinting Jiu, Motonari Adachi, Seiji Isoda

    MATERIALS TRANSACTIONS 2011 52
    (3),
    280-284

  • Aixiang Wei, Wang Zhao, Jun Liu, Zengxian Ge, Chuanbiao Liu

    Integrated Ferroelectrics 2011 127
    (1),
    157-163

  • Yu Yen Kuo, Jui Guo Lin, Chao Hsin Chien

    Journal of The Electrochemical Society 2011 159
    (2),
    K46-K49

  • T. S. Senthil, N. Muthukumarasamy, M. Thambidurai, R. Balasundaraprabhu, S. Agilan

    Journal of Sol-Gel Science and Technology 2010 ,

  • Jan Kehres, Jens Wenzel Andreasen, Frederik Christian Krebs, Alfons M. Molenbroek, Ib Chorkendorff, Tejs Vegge

    Journal of Applied Crystallography 2010 43, 1400-1408

  • D. P. Dubal, D. S. Dhawale, A. M. More, C. D. Lokhande

    Journal of Materials Science 2010 ,

  • X.D. Li, D.W. Zhang, S. Chen, Z.A. Wang, Z. Sun, X.J. Yin, S.M. Huang

    Materials Chemistry and Physics 2010 124, 179-183

  • Chao-Chin Su, Wei-Cheng Hung, Chin-Jung Lin, Shu-Hua Chien

    Journal of the Chinese Chemical Society 2010 57
    (10.1002/jccs.v57.5B),
    1131-1135

  • Viswanathan S. Saji, Myoungho Pyo

    Thin Solid Films 2010 518, 6542-6546

  • X. D. LI, D. W. ZHANG, Z. A. WANG, Z. SUN, S. M. HUANG, X. J. YIN, C. F. LIN

    International Journal of Nanoscience 2010 09
    (04),
    301-305

  • Lidong Sun, Sam Zhang, Xiao Wei Sun, Xiaodong He

    2010,57-108

  • W. Q. Peng, Y.-J. Liu, M. Aizawa, Z.-M. Wang, H. Hatori, T. Hirotsu

    Journal of Porous Materials 2010 ,

  • Ru-Hua Tao, Jin-Ming Wu, Hong-Xing Xue, Xiao-Mei Song, Xu Pan, Xia-Qin Fang, Xiao-Dong Fang, Song-Yuan Dai

    Journal of Power Sources 2010 195, 2989-2995

  • Viswanathan S. Saji, KyuKwan Zong, Myoungho Pyo

    Journal of Photochemistry and Photobiology A: Chemistry 2010 212, 81-87

  • U. Terranova, D. R. Bowler

    The Journal of Physical Chemistry C 2010 114
    (14),
    6491-6495

  • Hui Xu, Xia Tao, Dong-Ting Wang, Yan-Zhen Zheng, Jian-Feng Chen

    Electrochimica Acta 2010 55, 2280-2285

  • J Ida, T Honma, S Hayashi, K Nakajima, E Wada, A Shimizu

    Journal of Physics Conference Series 2010,012132

  • Yuanhao Wang, Hongxing Yang, Hongmei Xu

    Materials Letters 2010 64, 164-166

  • Jiaguo Yu, Jiajie Fan, Kangle Lv

    Nanoscale 2010 2, 2144

  • Ian Ivar Suni

    2010,

  • Jiaguo Yu, Jiajie Fan, Li Zhao

    Electrochimica Acta 2010 55, 597-602

  • Yu-Kai Han, Jenq-Nan Yih, Mei-Ying Chang, Wen-Yao Huang, Ko-Shan Ho, Tar-Hwa Hsieh, Jhih-Gong Lou

    Macromolecular Chemistry and Physics 2010 , n/a-n/a

  • Pavel A. Sedach, Terry J. Gordon, Sayed Y. Sayed, Tobias Fürstenhaupt, Ruohong Sui, Thomas Baumgartner, Curtis P. Berlinguette

    Journal of Materials Chemistry 2010 20, 5063

  • Xiangqing Li, Ying Cheng, Lifang Liu, Jin Mu

    Colloids and Surfaces A: Physicochemical and Engineering Aspects 2010 353, 226-231

  • P. Sudhagar, June Hyuk Jung, Suil Park, R. Sathyamoorthy, Heejoon Ahn, Yong Soo Kang

    Electrochimica Acta 2009 55, 113-117

  • Liguo Jin, Jin Zhai, Liping Heng, Tianxin Wei, Liping Wen, Lei Jiang, Xiaoxu Zhao, Xianyou Zhang

    Journal of Photochemistry and Photobiology C: Photochemistry Reviews 2009 10, 149-158

  • A. Vomiero, I. Concina, M. M. Natile, E. Comini, G. Faglia, M. Ferroni, I. Kholmanov, G. Sberveglieri

    Applied Physics Letters 2009 95
    (19),
    193104

  • J. Caro

    Microporous and Mesoporous Materials 2009 125, 79-84

  • D. Çakır, O. Gülseren

    Physical Review B 2009 80,

  • Rong-Ho Lee, Yu-Wei Huang

    Thin Solid Films 2009 517, 5903-5908

  • Chih-Chieh Wang, Chung-Yi Yu, Chi-Chung Kei, Chao-Te Lee, Tsong-Pyng Perng

    Nanotechnology 2009 20, 285601

  • A. Vomiero, G. Jimenez, C. Baratto, E. Comini, I. Concina, G. Faglia, M. Falasconi, M. Ferroni, I. Kholmanov, N. Poli, A. Ponzoni, S. Todros, G. Sberveglieri

    2009,001325-001326

  • Chien-Hsin Yang, Han-Lung Chen, Yao-Yuan Chuang, Chun-Guey Wu, Chiao-Pei Chen, Shao-Hong Liao, Tzong-Liu Wang

    Journal of Power Sources 2009 188, 627-634

  • Daoai Wang, Bo Yu, Feng Zhou, Chengwei Wang, Weimin Liu

    Materials Chemistry and Physics 2009 113, 602-606

  • V THAVASI, V RENUGOPALAKRISHNAN, R JOSE, S RAMAKRISHNA

    Materials Science and Engineering: R: Reports 2009 63, 81-99

  • Huei-Siou Chen, Chaochin Su, Chin-Kai Lin, Yi-Fang Hsieh, Chong-Kuang Yang, Wen-Ren Li

    JOURNAL OF CHEMICAL ENGINEERING OF JAPAN 2009 42, s36-s42

  • Patcharee Charoensirithavorn, Yuhei Ogomi, Takashi Sagawa, Shuzi Hayase, Susumu Yoshikawa

    Journal of The Electrochemical Society 2009 156, H803

  • Shuang Li, Yaogang Li, Hongzhi Wang, Wugang Fan, Qinghong Zhang

    European Journal of Inorganic Chemistry 2009,4078

  • Soon Hyung Kang, Hyun Sik Kim, Jae-Yup Kim, Yung-Eun Sung

    Nanotechnology 2009,355307

  • Shuang LI, Qing-Hong ZHANG, Yao-Gang LI, Hong-Zhi WANG

    Journal of Inorganic Materials 2009,675

  • Eun Sik Kwak, Wonmok Lee, Nam-Gyu Park, Junkyung Kim, Hyunjung Lee

    Advanced Functional Materials 2009,1093

  • Haiyan Li, Jun Jiao

    MRS Proceedings 2009 1167,

  • Xiao-Hong WU, Song WANG, Yun GUO, Zhao-Yang XIE, Lu HAN, Zhao-Hua JIANG

    Chinese Journal of Chemistry 2008 26
    (10.1002/cjoc.v26:10),
    1939-1943

  • Kaname Yoshida, Jinting Jiu, Daiki Nagamatsu, Takashi Nemoto, Hiroki Kurata, Motonari Adachi, Seiji Isoda

    Molecular Crystals and Liquid Crystals 2008 491, 14-20

  • A. Sadeghzadeh Attar, M. Sasani Ghamsari, F. Hajiesmaeilbaigi, Sh. Mirdamadi, K. Katagiri, K. Koumoto

    Journal of Materials Science 2008 43, 5924-5929

  • A. Sadeghzadeh Attar, M. Sasani Ghamsari, F. Hajiesmaeilbaigi, Sh. Mirdamadi, K. Katagiri, K. Koumoto

    Journal of Materials Science 2008 ,

  • Lei Yang, Yuan Lin, Jianguang Jia, Xurui Xiao, Xueping Li, Xiaowen Zhou

    Journal of Power Sources 2008 182, 370-376

  • T Stergiopoulos, A Ghicov, V Likodimos, D S Tsoukleris, J Kunze, P Schmuki, P Falaras

    Nanotechnology 2008 19, 235602

  • G. Sberveglieri, E. Comini, G. Faglia, M. Ferroni, G. Jimenez, A. Vomiero

    2008,1-3

  • Jih-Jen Wu, Guan-Ren Chen, Chia-Chun Lu, Wei-Ting Wu, Jen-Sue Chen

    Nanotechnology 2008 19, 105702

  • Cheng-Yu Kuo, Shih-Yuan Lu

    Nanotechnology 2008 19, 095705

  • Markéta Zukalová, Jan Procházka, Arnošt Zukal, Jun Ho Yum, Ladislav Kavan

    Inorganica Chimica Acta 2008 361, 656-662

  • S. H. Kang, S.-H. Choi, M.-S. Kang, J.-Y. Kim, H.-S. Kim, T. Hyeon, Y.-E. Sung

    Advanced Materials 2008 20
    (10.1002/adma.v20:1),
    54-58

  • Luís Moreira Gonçalves, Verónica de Zea Bermudez, Helena Aguilar Ribeiro, Adélio Magalhães Mendes

    Energy & Environmental Science 2008,655

  • Abbas Sadeghzadeh Attar, Morteza Sasani Ghamsari, Fereshteh Hajiesmaeilbaigi, Shamsoddin Mirdamadi

    Journal of Materials Science 2008,1723

  • Ismael C. Flores, Jilian Nei de Freitas, Claudia Longo, Marco-Aurelio De Paoli, Herbert Winnischofer, Ana Flávia Nogueira

    Journal of Photochemistry and Photobiology A: Chemistry 2007 189, 153-160

  • Ben F. Cottam, Siva Krishnadasan, Andrew J. deMello, John C. deMello, Milo S. P. Shaffer

    Lab Chip 2007 7, 167-169

  • Yong Zhao, Jin Zhai, Tianxin Wei, Lei Jiang, Daoben Zhu

    Journal of Materials Chemistry 2007 17, 5084

  • Ben F. Cottam, Siva Krishnadasan, Andrew J. deMello, John C. deMello, Milo S. P. Shaffer

    Lab on a Chip 2007 7, 167

  • Jih-Jen Wu, Guan-Ren Chen, Hung-Hsien Yang, Chen-Hao Ku, Jr-Yuan Lai

    Applied Physics Letters 2007 90, 213109

  • Avi Shalav

    Progress in Photovoltaics: Research and Applications 2006 14
    (10.1002/pip.v14:8),
    753-758

  • Tsung-Wei Zeng, Yun-Yue Lin, Hsi-Hsing Lo, Chun-Wei Chen, Cheng-Hsuan Chen, Sz-Chian Liou, Hong-Yun Huang, Wei-Fang Su

    Nanotechnology 2006 17, 5387-5392

  • Avi shalav, Bryce S. Richards

    Progress in Photovoltaics: Research and Applications 2006 14
    (10.1002/pip.v14:4),
    373-379

  • Qiaohong Yao, Junfeng Liu, Qing Peng, Xun Wang, Yadong Li

    Chemistry – An Asian Journal 2006,737

  • S. A. Akhoon, S. Rubab, M. A. Shah

    ,197-225

  • S. A. Akhoon, S. Rubab, M. A. Shah

    ,277-312

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    Natural gas and renewables will be most of US power and US will export oil, coal and gas – NextBigFuture.com

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    Natural gas is continuing to dominate energy usage in the United States. Coal provided 60{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of US electrical power 30 years ago and was still providing 50{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} in 2005.

    Coal is very competitive in certain parts of the United States, including in the coal hotbeds of Appalachia and the Powder River Basin in Montana and Wyoming.

    Natural gas power generation is up 17{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} this year. Natural gas production continues to rise. By itself natural gas is heading to 35{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of US electrical power in 2019. All of the hydro, solar, wind and biomass (ethanol) will be another 15{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974}. Combined they will be over 50{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of US electrical power generation.

    Depending on oil and energy prices the US will become a major net exporter of fossil fuels. The US is already exporting coal and some oil and gas. This will become a major amount. As recently as 2005, the US was importing 30{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of its energy. The US is still a net importer of 10{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of its energy. By 2020-2022, the US should pass to become a net exporter. If oil prices are high then natural gas prices would tend to follow as well. High prices would mean supply and production shortages elsewhere and the US could scale up to exporting 20{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of its energy before 2030.

    BTU anticipates 56 new or converted natural gas plants to come online by the end of next year.

    CO2 emissions better but not as good as hoped

    In theory, natural gas can have 50-60{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the emissions of coal. Fracking releases large amounts of natural gas – which consists of both CO2 and methane – directly into the atmosphere. Fracking wells can leak 40 to 60{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} more methane than conventional natural gas wells.

    The Natural gas revolution did reduce overall US emissions from 2000. However, it is not tracking the optimal 50-60{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of coal CO2 emissions. After declining by 0.9{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} in 2017, EIA forecasts that energy-related carbon dioxide (CO2) emissions will rise by 2.0{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} in 2018. The increase largely reflects higher natural gas consumption because of a colder winter and warmer summer than in 2017. Emissions are forecast to decline by 0.8{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} in 2019. Energy-related CO2 emissions are sensitive to changes in weather, economic growth, energy prices, and fuel mix.

    Increased natural gas use is also because natural gas plants back up the intermittent solar and wind power. Solar generating from 10am to 5pm with variation based on clouds. Wind also generating at different times.

    Here is the energy breakdown for the USA.

    Energy                      2017 (TWH)   2018 YTD   Last 12 months
Natural gas                     1273       655               1362
Coal                            1208       542               1176
Nuclear                          805       403                821
Wind, ethanol and biomass        334       192                350
Hydro                            300       162                287
Solar                             53        33                 60
Other including oil, coke         42        23                 45
Overall electricity             4015      2012               4102

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    Huge Martian dust storm may be killing NASA’s Opportunity rover

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    A global dust storm on Mars is threatening the future of NASA’s Opportunity rover, the longest-lived robot on that planet.

    The golf-cart-size vehicle launched toward Mars in June 2003, landed in January 2004, and was supposed to last three months. Today, the rover is 15 years old and has rolled more than a marathon’s worth of miles across the surface of the red planet using solar power.

    But Opportunity now seems to be in trouble.

    Thanks to the long-lasting global dust storm, which has now raged for nearly two months, Opportunity fell asleep on June 10 and hasn’t phoned home.

    Global dust storms appear once every couple of years and shroud the planet in a dull-red haze, but NASA said this is “one of the most intense” ever recorded.

    “This is the worst storm Opportunity has ever seen, and we’re doing what we can, crossing our fingers, and hoping for the best,” Steve Squyres, a planetary scientist at Cornell University and leader of the rover mission, told A.J.S. Rayl for a recent Planetary Society blog post.

    Why the dust storm is endangering Opportunity

    Mars in 2001 as it typically appeared (left) and how the red planet looked after a global dust storm appeared (right).
    NASA/JPL-Caltech/MSSS

    The Martian weather event has not only blocked light to Opportunity’s solar panels, but also coated them in fine dust. This one-two punch has dramatically lowered the rover’s ability to store and use electrical energy.

    Cold is a big issue on Mars, where winter temperatures can drop to -100 degrees Fahrenheit near the equator. Such cold can shrink bits of metal in electronic circuits and snap them.

    Little buttons of nuclear material called plutonium-238 help keep Opportunity’s circuitry warm, but the stuff doesn’t last forever and is well-decayed — so it’s not hot enough to fully protect the rover’s systems. This means Opportunity still needs electricity to keep its battery charged, run circuit-warming heaters, and talk to NASA mission control back on Earth.

    Draining the batteries too low is also problematic. The longer they’re inactive, the more electrical storage capacity they lose. If the storm doesn’t break soon, and Martian dust devils don’t blow the dust off Opportunity’s solar panels, NASA says there’s a possibility the batteries could “brown out,” or suddenly dip in voltage.

    If that happens, or the rover can’t recover a variety of “fault modes,” Opportunity will join the ranks of Spirit — its nearly identical sister rover.

    Spirit stopped talking to NASA in March 2010, during a Martian winter. Engineers tried to regain contact with Spirit for more than a year before calling it quits. (Spirit is now presumably another dead robot on the red planet.)

    Now for the good news

    Simulated images show what NASA’s Opportunity rover saw as a global Martian dust storm blotted out the sun in June 2018.
    NASA/JPL-Caltech/TAMU

    NASA said in an August 16th press release that “there’s reason to be optimistic,” since the storm appears to be weakening. This could mean enough sunlight may soon hit Opportunity’s solar panels to charge up its batteries and phone home.

    The agency also said that the batteries were in “relatively good” working condition before the storm, so “there’s not likely to be too much degradation.” Dust storms also tend to warm up the environment, so that will help buffer against circuit-busting cold.

    Opportunity is “not out of the woods” yet, though. A representative at NASA told Business Insider there is “no update” on the rover’s status, which means the agency has yet to hear back.

    This is one of the longest periods a solar-powered robot has ever hibernated on Mars to conserve energy. Opportunity has already pushed its engineered lifetime by a decade and a half — and it’s not getting any younger.

    “Even if engineers hear back from Opportunity, there’s a real possibility the rover won’t be the same,” NASA said. “No one will know how the rover is doing until it speaks.”

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    Solar rebates Archives | Yes Solar Solutions

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    Yes Solar Solutions Mission

    Yes Solar Solutions is proud to make solar simple, bringing the power of independence to North Carolina homeowners and businesses. Serving Raleigh, Cary, Durham, Greensboro, Morrisville, Chapel Hill, Apex, Holly Springs, Garner, Winston-Salem, High Point, Burlington, Fayetteville and all of North Carolina.

    BBB Accredited Solar Energy Equipment Company in Cary, NC

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    Blake Cummings, Runoff election – Corporation commission – Democrat – News – The Daily Ardmoreite

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    Editor’s note: Candidates for state and national offices on the ballot for the August 28 runoff election were invited to respond to questions for profiles in The Ardmoreite. Those who chose to respond will be featured alongside their ballot opponent. For those that did not participate, basic information will be provided.

    Introduction:
    I live in Seminole County, near Maud, but was raised at Kinta, in Haskell County. I have a BBA in Petroleum Land Management from OU. I have worked primarily in the oil and gas industry, but also in telecom and government relations. My wife Donna is an RN and my daughter Abby is a nursing student at East Central University.

    Why are you running for this office?
    I am running because our state government, especially the OCC, no longer answers to the people of Oklahoma, but to a small number of rich and powerful elite, CEOs and billionaires. I want to bring the focus of government on the people who make this state great: The 3.9 million Oklahomans, not the select few.

     What do you think are the top three biggest challenges facing our state?
    Our three biggest challenges are 1. funding for our future, 2. Education, and 3. Getting back to serving the millions, not the millionaires.

    What are your top five priorities to address while in office?
    My five priorities are 1. Treat wind and solar energy with equal footing as oil and gas. 2. Rural internet access should expand to all households in the state. 3. 7 percent GPT again and for good this time. 4. Restore our tax rates to the level they were the last time our government paid for itself and necessary services, and 5. Don’t make government work against the masses like it has the last decade.

    When faced with a specific situation that puts your personal viewpoint at odds with a great many of your constituents, what decision do you make and why?
    If I feel strongly about an issue, I will make my case to the people. If the majority still stands against my position, as their public servant I will support the people’s choice. Public service is not personal service.

    What is your position on the gross production tax? What do you think the max GPT should be? What is your stance on GPT for resources other than oil?
    A 7 percent GPT was the norm for decades. We must get back to that level ASAP. Because this was the norm, it should never go higher than 7 percent without a vote of the people at large. Seven percent GPT should apply to all energy resources in Oklahoma: oil, gas, wind, solar, and anything else related to energy production.

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    Portal:Solar energy – Wikipedia

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    The benefit of thermal mass is shown in this comparison of how heavy and light weight constructions affect internal temperature

    In building design, thermal mass is a property of the mass of a building which enables it to store heat, providing “inertia” against temperature fluctuations. It is sometimes known as the thermal flywheel effect. For example, when outside temperatures are fluctuating throughout the day, a large thermal mass within the insulated portion of a house can serve to “flatten out” the daily temperature fluctuations, since the thermal mass will absorb thermal energy when the surroundings are higher in temperature than the mass, and give thermal energy back when the surroundings are cooler, without reaching thermal equilibrium. This is distinct from a material’s insulative value, which reduces a building’s thermal conductivity, allowing it to be heated or cooled relatively separate from the outside, or even just retain the occupants’ thermal energy longer.

    Scientifically, thermal mass is equivalent to thermal capacitance or heat capacity, the ability of a body to store thermal energy. It is typically referred to by the symbol Cth and measured in units of J/°C or J/K (which are equivalent). Thermal mass may also be used for bodies of water, machines or machine parts, living things, or any other structure or body in engineering or biology. In those contexts, the term “heat capacity” is typically used instead. Read more…

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    IKEA starts installing over 5,000 solar panels on its Alberta store locations

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    IKEA is a Swedish-founded multinational group, that designs and sells ready-to-assemble furniture, kitchen appliances and home accessories. It has been the world’s largest furniture retailer since at least 2008.

    Ikea has started on a path to become 100 percent circular and climate-positive in its operations with the start of two solar projects at its locations in Alberta.

    Ikea locations in Edmonton and Calgary will be receiving a combined 5,100 solar panels.

    The Edmonton location will be taking the lion’s share with 2,905 panels that, once installed, will produce 1,180 megawatts of energy per year.

    Calgary will be outfitted with the remaining 2,240 panels, creating 1,000 megawatts per year.

    These panels will produce enough electricity to supply 25 percent of the voltage needed for the company’s operations in Alberta.

    The addition of the panels to the two locations will offset an approximate 1,622 tonnes of CO2 emissions per year once operational.

    More Stories From Around the Web:

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    Solar Panel Installer in Adrian, MI at Diverse Staffing

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    Diverse Staffing is now accepting Solar Panel Installer applicants for immediate hire for a long term temporary position. In this job, you will work for our client at a facility in Adrian, MI. This position pays up to $15.00/hr. and is a 1st shift position. Overtime maybe required.  This position will start in mid August and continue for 4 to 5 months.  Full-time maybe offered to top performer.

    Our client provides cost effective renewable energy for agriculture, commercial and residential customers throughout the Midwest. Our client provides full design and installation of solar energy and wind energy systems in Michigan, Illinois, Indiana, Iowa, Kentucky, Minnesota, Missouri, Ohio, Tennessee, and Wisconsin and now in Arkansas. They specialize in agricultural, commercial and rural residential installations. Diverse Staffing has partnered with a great company offering to pay for its star performers to acquire their CDL license.

    The following in an example of some of the tasks you may be asked to perform daily working at this position:

    •    Install Solar Panels at client’s location the first position will be in Adrian Michigan at three different worksites.
    •    Layout Job-sites, operate equipment to bore holes or drive posts, pour concrete, fasten and level racking, mount solar panels using hand tools, run wiring, test output as trained by manager.
    •    This is a temporary, full time hourly position, overtime will be paid after 40 working hours per week. This position frequently requires long hours.
    •    At Diverse Staffing, our focus is on helping people achieve their career goals through the right career opportunities.

    At Diverse Staffing, our focus is on helping people achieve their career goals through the right career opportunities. We truly value our staff. Diverse employees enjoy safe work environments, fair supervision, reliable pay, and even benefits like medical coverage if you need it!

    It’s time to join a winning team. Apply today!

    For immediate consideration, apply online and contact us for an interview at:

    Jackson Recruiting Center

    1035 Laurence Ave.

    Jackson, MI 49202

    Phone (517) 945-0007

    OnlineAppJackson@diversestaffing.com

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    Navajo Nation solar facility breaks ground on second stage of expansion

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    (Photo from Salt River Project).

    PHOENIX — A solar facility in Navajo Nation is expected to double the number of homes it can provide renewable energy to over the next year.

    Navajo Nation broke ground on the second phase of an expansion project that will provide a 28-megawatt addition to the Kayenta Solar generation facility in northeastern Arizona.

    Under the guidance of the Native American nation, Navajo Tribal Utility Authority and the Salt River Project, the facility is expected to serve 36,000 homes once upgrades are complete in June 2019.

    “Extending electricity to homes without has always been our goal as well as our challenge,” said NTUA general manager Walter Haase. “Kayenta II is catalyst in that direction and will help us to improve the
    standard of living for many Navajo families.”

    In addition, improvements will pave the way to further advancements.

    The groups will work toward projects that would provide 500 megawatts of renewable energy over the next five to 10 years, according to the release.

    Additionally, the jobs and taxes from the project are expected to bring an economic boost to the nation.

    The initial Kayenta project was estimated to have brought $15.6 million in economic activity to the surrounding communities.

    It’s also attracting some star power.

    Property Brothers co-host Jonathan Scott made an appearance at the ceremony, saying he is interested in seeing the impact of the solar energy on the Navajo people.



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    U.S. Senate Sees Blockchain Changing Energy Sector

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    The United States Senate sees blockchain as a future part of the energy sector. This came as information released by the U.S. Senate Committee on Energy and Natural Resources this month.

    Blockchain Technology Has Potential in the Energy Sector

    The hearing discussed possible applications of distributed ledger technology (DLT) in the energy sector. The committee considered an increase in electricity prices due to growing demand for blockchain apps. More importantly, was a discussion on how blockchain can improve computing systems.

    Arvind Narayanan, an associate professor of computer science at Princeton University, explained:

    “A blockchain-based market might be more attractive than a centralized trading platform if market participants are averse to a single company controlling the platform. Other initiatives enable customers to directly trade electricity with each other in a ‘peer to peer’ fashion, for example, by buying and selling excess rooftop solar power.”

    According to Narayanan, blockchain technology brings potential benefits to risks currently in energy systems.

    Previously, we reported that Wien Energie, an important electric company in Austria, is testing different use cases of DLT.  The company was trying different products in a developing project in Vienna. But this is not the only project related to blockchain technology in the energy industry.

    A similar announcement was made by the National Energy Commission of Chile (CNE) the institution that regulates the energy sector, as it decided to launch a pilot on the Ethereum blockchain. The intention of this project is to increase security levels of the energy grid. Additionally, it aimed to improve integrity, traceability, and confidence.

    There are other governments that are working with blockchain technology. DLT is able to improve services, processes and reduce bureaucracy. Financial institutions are also adopting DLT to make their services and products more efficient.

    The future looks brighter every time blockchain is considered as a solution to existing problems in large-scale industries like national energy grids.



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