Kuang-Lieh Lu (呂光烈)
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(O)︰(02) 2905-3570 (LAB):(02) 2905-2482 |
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E-mail: 146173@mails.fju.edu.tw |
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Link |
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Education |
Ph.D. National Taiwan
University, 1989 M.S. National
Taiwan University, 1983 B.S. National Taiwan Normal University, 1974 |
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Experience |
1994-present Research Fellow, Institute of Chemistry, Academia Sinica 2008-present Adjunct Professor, National Central University 2002-2016 Adjunct Professor, National Taiwan Normal University 2013/06-2013/07 Visiting Professor, Osaka Prefecture University, Japan 2007-2008 Director, Office of General Affairs, Academia Sinica 2005/08-2005/10 Visiting Professor, Northwestern University, U.S.A. 1999-2003 Deputy Director, Institute of Chemistry, Academia Sinica 2001-2002 General Secretary, The Chemical Society Located in Taipei 2001/03-2001/04 Visiting Professor, University Louis Pasteur, Strasbourg, France 1994-1995 Visiting Scholar, The University of Oxford, UK 1989-1994 Associate
Research Fellow, Institute of Chemistry, Academia Sinica 1988-1989 Visiting
Scientist, The Pennsylvania State University, U.S.A. 1983-1989 Assistant
Research Fellow, Institute of Chemistry, Academia Sinica |
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Awards and honors |
Chemical Technology Award, Chemical Society Located in Taipei, 2017 Outstanding Research Award, NSC
(ROC), 2010 National Innovation Award, 2007 |
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Research Interest |
Inorganic Chemistry Supramolecular Chemistry Metal-Organic
Frameworks |
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Invited Lectures and Seminars |
2018 43rd International Conference on
Coordination Chemistry (ICCC2018), Sendai, Japan. (Invited lecture) Ta-shue Chou Lectureship, 2018, Taipei, Taiwan. (Invited
lecture) 2018 Cross-Strait Quadrilateral Workshop on
Frontiers of Chemistry, Taipei, Taiwan. (Invited
lecture) Symposium on Contemporary Coordination Chemistry,
Hualien, Taiwan. (Invited lecture) National Dong Hwa
University, Taiwan. (Invited lecture) Chung Yuan Christian University, Taiwan. (Invited
lecture) 2017 The 4rd
Japan-Taiwan-Singapore-Hong Kong Quadrilateral Symposium on Coordination
Chemistry, 2017, Hong Kong. (Invited lecture) National Chi Nan
University, Taiwan. (Invited lecture) 2016 2016 Global Research Efforts on Energy and Nanomaterials (GREEN 2016),
Taipei, Taiwan. (Invited lecture) 2016 The
EMN Meeting on Metal-Organic Frameworks, Qingdao, China. (Invited
lecture) National Tsing Hua University, Taiwan. (Invited lecture) National Chung Cheng University, Chia-Yi, Taiwan. (Invited
lecture) National Chin-Yi University of Technology, Taichung, Taiwan.
(Invited lecture) 2015 2015
International Conference on Nanospace Materials, Taipei. (Keynote lecture) 5th Asian Conference
on Coordination Chemistry (ACCC5), Hong Kong. (Invited lecture) 2015
International
Chemical Congress of Pacific Basin Societies (Pacifichem 2015), Hawaii. (Invited
lecture) 2015 Trilateral Japan-Singapore-Taiwan
symposium, Singapore. (Invited lecture) 2015 International Symposium for Advanced Materials
Research (ISAMR 2015), Sun Moon Lake, Taiwan. (Invited
lecture) National Cheng
Kung University, Taiwan. (Invited lecture) 2014 41st International Conference on
Coordination Chemistry (ICCC-41), Singapore. (Invited lecture) National Taipei University of Technology, Taiwan. (Invited
lecture) National Central University, Taiwan. (Invited lecture) Tunghai University, Taiwan. (Invited lecture) National Hsinchu University of Education, Taiwan.
(Invited lecture) 2013 1st Japan-Taiwan-Singapore
Joint Symposium on Coordination Chemistry. Osaka, Japan. (Invited
lecture) National Chin-Yi University of Technology, Taichung, Taiwan.
(Invited lecture) National Sun Yat-sen University, Taiwan. (Invited
lecture) 2012 Post-Conference Symposium
“Frontiers of Organometallic Chemistry”, Saint-Petersburg,
Russia. (Invited lecture) Osaka
Prefecture University, Osaka, Japan. (Invited
lecture) Osaka
University, Osaka, Japan. (Invited lecture) National
Institute of Advanced Industrial Science and Technology, Osaka, Japan. (Invited
lecture) Nara
Women’s University, Nara, Japan. (Invited lecture) National Central University, Taiwan. (Invited
lecture) National
Chung Cheng University, Chia-Yi, Taiwan. (Invited
lecture) Kaohsiung
Medical University, Taiwan. (Invited lecture) National
Taiwan University of Science and Technology, Taiwan. (Invited
lecture) 2011 3rd
Taiwan-Korea bilateral symposium, Taiwan. (Invited lecture) Shanghai-Taipei
Material Chemistry Workshop, Shanghai, China. (Invited lecture) National Seminar on
Nanostructured Materials and Applications, India. (Keynote lecture) National Chung Hsing University,
Taiwan. (Invited lecture) National Kaohsiung
Normal University, Taiwan. (Invited lecture) National Chin-Yi University of
Technology, Taichung, Taiwan. (Invited lecture) 2010 2010
International Chemical Congress of Pacific Basin Societies (Pacifichem 2010),
Hawaii. (Invited lecture) The Cross-the-strait
Symposium on Material Science 2010, Fujian, China. (Invited lecture) Pre-Symposium,
Organometallic Chemistry, 24th International Conference on Organometallic
Chemistry (ICOMC), Taiwan. (Invited lecture) 2009
237th ACS National Meeting, Salt Lake City, USA. (Invited
lecture) Taipei-Shanghai
Symposium of Materials Chemistry, Taiwan. (Invited lecture) 6th Singapore International Chemical Conference
(SICC-6). Singapore. (Invited lecture) National Tsing Hua University, Taiwan. (Invited lecture) National Chung Hsing University, Taiwan. (Invited lecture) Chung Yuan Christian University, Taiwan. (Invited lecture) 2008 IUMRS International Conference in Asia 2008 (IUMRS-ICA 2008), Nagoya,
Japan. (Invited
lecture) ICAM-2008 (International Conference on Advanced Materials 2008), Kerala,
India. (Invited
lecture) International Symposium on Molecular Information and Dynamics 2008,
Taipei, Taiwan. (Invited
lecture) Prof. Srinivasan Endowment Lectures, Madurai Kamaraj University, India.
Vivekananda College, Madurai, India. (Invited lecture) Chemical Society Located in Taipei, Annual Meeting, Changhua, Taiwan. (Invited lecture) Symposium in Metallo-supramolecular Chemistry, National Dong-Hwa
University, Taiwan. (Invited lecture) Prof. Ta-Shue Chou Memorial Symposium, Academia Sinica. (Invited lecture) National Chiao-Tung University, Hsinchu, Taiwan. (Invited lecture) 2007 Bangladesh Chemical
Congress, Dhaka, Bangladesh. (Invited lecture) 11th
ICCT (International Chemical Conference, Taipei), Hsinchu, Taiwan. (Invited lecture) The Taipei-Beijing Bilateral Workshop
on Frontiers of Chemistry, Taipei, Taiwan. (Invited lecture) National
Chi Nan University, Taiwan. (Invited lecture) 2006 University of Burgundy, Dijon, France. (Invited lecture) Laboratoire
de Chimie de Coordination du CNRS, Toulouse, France.
(Invited lecture) National Dong-Hwa University, Hualien, Taiwan.
(Invited lecture) Academia Sinica, Taipei, Taiwan. (Invited
lecture) National Chin-Yi Institute of Technology, Taichung, Taiwan.
(Invited lecture) 2005 10th ICCT
(International Coordination Conference, Taipei), Hsinchu, Taiwan. (Invited
lecture) Coordination Chemistry Conference at Sun Yat-sen University,
Guangzhou, China. (Invited lecture) Northwestern National Sun Yat-sen
University, Kaohsiung, Taiwan.
(Invited lecture) The China
Medical University, Taichung, Taiwan.
(Invited lecture) National
University of Kaohsiung, Kaohsiung, Taiwan. (Invited
lecture) 2004 Fu Jen Catholic
University, Taipei, Taiwan. (Invited lecture) National Central
University, Zhongli, Taiwan. (Invited lecture) 2003 National Chiao-Tung University,
Hsinchu, Taiwan. (Invited lecture) National Chung Cheng University, Chia-Yi, Taiwan.
(Invited lecture) National Taiwan University, Taipei, Taiwan.
(Invited lecture) 2002 Madurai Kamaraj University, India. (Invited lecture) Manonmaniam Sundaranar University, India. (Invited lecture) Sun Yet-sen University, China. (Invited lecture) Chung Yuan Christian University, Chung Li, Taiwan. (Invited lecture) Soochow University, Taipei, Taiwan. (Invited lecture) 4th International Symposium for Chinese Inorganic
Chemists, Hsinchu, Taiwan. (Invited lecture) 2001 University of Louis
Pasteur, France. (Invited lecture) Leiden
University, the Netherlands. (Invited lecture) National Chen Kung University, Tainan, Taiwan.
(Invited lecture) National Tsing Hua University, Hsinchu, Taiwan.
(Invited lecture) National Central University, Taipei, Taiwan.
(Invited lecture) National Sun Yet-sen University, Taiwan. (Invited
lecture) Tamkang University, Tamsui, Taiwan. (Invited
lecture) National Hsinchu University of Education, Hsinchu, Taiwan.
(Invited lecture) |
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Service
to Academic Community |
Advisory Board, Journal of
Materials Chemistry C (2013, 1-2014, 12). Advisory
Board, Journal of Materials Chemistry
(2009, 8-2012, 12). Co-organizer, 43rd
International Conference on Coordination Chemistry (ICCC2018), Sendai, Japan. Co-organizer, 4rd
Japan-Taiwan-Singapore-Hong Kong Quadrilateral Symposium on
Coordination Chemistry, 2017, Hong Kong. Co-organizer, 3rd
Japan-Taiwan-Singapore-Hong Kong Quadrilateral Symposium on
Coordination Chemistry, 2016, Taipei. Co-organizer, Symposium on "Discrete
Coordination Compounds with Multiple Intra- and/or Intermolecular
Non-covalent Interactions," Pacifichem 2015, Hawaii. Co-organizer, 2nd
Japan-Singapore-Taiwan Trilateral Symposium on Coordination Chemistry, 2015, Singapore. Co-organizer, Symposium on "Discrete
Coordination Systems with Switchable Structures and Properties",
Pacifichem 2010, Hawaii. Councilor, Chemistry Research Promotion Center,
NSC (2010, 1-2013, 12). Advisory
Committee, National Science Council (2005, 8-2008, 7). Panel
Member, National Science Council (2002, 8-2005, 7). General
Secretary, The Chemical Society Located in Taipei, 2001-2002. Deputy
Director, Institute of Chemistry (1999, 7-2003, 2). Editorial Board, Journal of
the Chinese Chemical Society (1997- ). |
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Research achievements (2013-2018) |
My major interest is developing efficient
self-assembly strategies for use in the synthesis of metal–organic compounds,
including coordination polymers, nanotubes and metallacycles. These projects
encompass the field of host–guest supramolecular chemistry. In the past five
years, the primary research achievements of the KLLu laboratory involve
studies related to metal–organic frameworks (MOFs), from which unusual
structures were constructed and the dimensions of research of MOFs directed
towards optoelectronics applications have been expanded. MOFs have emerged as a promising class of materials
with a wide spectrum of useful properties. However, much less efforts
have been directed towards investigating MOFs for use in micro and
optoelectronic applications. Our studies on the fundamental dielectric,
semiconducting, conducting and optical properties of various MOFs have made
us highly competitive in this cutting edge research field. In addition, our
results have been found to be very promising for optical and microelectronic
applications and would benefit the industrial upgrade in Taiwan. Development of
metallacycles. The innovative self-assembly synthetic strategies developed by our
group allowed us to synthesize a wide variety of discrete neutral
metallacycles in high yields with predesigned geometries. The effective
one-step preparation, the high degree of stability, tunable cavity size,
recognition capability and switchable properties make these Re-based
metallacycles intriguing and potentially useful supramolecules. The results
for our work on metallacycles are summarized in Acc. Chem. Res. 2012, 45,
1403; Coord. Chem. Rev. 2005, 249, 1085
& 2012, 256,
3008. Since
2013, the metallacycle project has progressed very well, as summarized in our
papers in Coord. Chem. Rev. 2014, 280, 96 and J. Photochem. Photobiol. C: Photochem. Rev. 2015, 23, 25. Rare structures of MOFs. Fundamental studies on the design,
structures and properties of MOFs are essential for the creation of a new
research direction in this important field. In addition to some rare
structures (Angew. Chem., Int. Ed. 2005, 44, 6063
& 2009, 48, 9461),
we also developed a
family of unprecedented bamboo-like metal–organic nanotubes that were assembled from new, in situ
generated benzenehexaolate (C6O66-) scaffolds (Angew. Chem., Int. Ed. 2016, 55, 8343). It is
noteworthy that this synthetic strategy is a general one and the
benzenehexaolate ligand is unprecedented and unknown for transition metal
complexes. These characteristics are significant as one reviewer pointed out
“The potential significance
of this work rests largely on whether or not the LEGO building block is
generalizable” and the other reviewer commented “In my opinion, the most
interesting aspect of this paper is the incorporation of the benzenehexaolate
ligand. As far as I know, this ligand is very rare and might be unknown for
transition metal complexes”. This
paper was selected as a Cover Picture (Back Cover) by Angew. Chem. Low-k and high-k MOFs. In
the past five years, investigations of the fundamental semiconducting,
conducting, dielectric and optical properties of various MOFs and their potential
applications in our laboratory have been very rewarding. The sizes of
integrated circuits toward the nanometer (nm) scale will require new types of
ultra-low dielectric constant materials instead of the traditional SiO2
(k = 3.9). This provide a path for
developing porous materials, particularly metal–organic frameworks (MOFs),
for use as low dielectric materials. One of our strontium-based MOFs
exhibited a very low dielectric constant (k
= 2.4) with the highest thermal stability (420 ˚C) among all low-k MOFs. Our fundament studies,
including structure–property relationships with regard to inter-layer
dielectric applications, were summarized (Coord. Chem. Rev. 2018, 360, 77 & NPG
Asia Mater. 2016, 8, e333). A patent for protecting our results on low-k,
high thermal stability, high chemical stability and guest-free MOFs is
pending and some private sector companies have expressed interest in these
technologies. Semiconducting and
conducting MOFs. In
addition to low-k and high-k studies, a Sr-based MOF that was recently prepared in our
laboratory showed remarkable semiconducting behavior as evidenced by both
experimental measurements and theoretical calculations (Adv. Mater. 2017, 29, 1605071
& ACS Appl. Mater. Interfaces 2015, 7, 22767). Significantly, its bandgap (2.3 eV) was
found to be comparable to those for other commonly used semiconducting
materials e.g. CdSe, CdTe, ZnTe and GaP etc. This work presents a significant
and encouraging step towards a new research direction directed toward
potential applications of MOFs in optoelectronics devices. It should be noted here that this paper (Adv. Mater. 2017, 29, 1605071)
was judged
by the editor of the journal to be very important and very
urgent. Very recently, a new strategy for integrating the
(–Cu–S–)n plane in a
Cu-based metal‒organic framework to achieve an unprecedented high electrical
conductivity (10.96 S/cm) was successfully developed. This value is the
highest electrical conductivity among MOFs
in the form of a single crystal reported to date. A single crystal of the MOF was also
found to have a very low activation energy (6 meV) and small bandgap (1.34
eV). This significant finding offers a prototypal approach for producing a
new class of highly electrically conductive MOFs for applications in
supercapacitors, thermoelectric, fuel cells, chemical sensing, and
lithium-ion batteries. We believe that these materials have substantial
potential for use in the future (Nat.
Commun. in revision). White Light Emission
from MOFs. Among important results in the development of MOFs
for optoelectronic applications, we successfully synthesized several MOFs
that emit a continuous broad band covering the entire range of the visible
spectrum. In particular, a judicious design strategy for the generation of
natural white light from a single component, namely, a Sr-based MOF was
achieved. The continuous broadband emission closely resembles the solar
spectrum, thus making it more comfortable for the human eye. An alkaline
earth metal was used to replace the commonly used lanthanides. The first electrically driven
white light emission using this MOF material was reported (ACS Nano 2016, 10, 8366). A press release with the title “Lowering the cost and
environmental footprint of white LEDs with MOFs and graphene” was distributed by ACS Nano. These results were also reported by a number of
scientific news agencies incuding an ACS press release, Scienmag, Phy.org,
ScienceDaily, Sciencenewsline, OOYUZbeta, Nanowerk, Environmentguru,
eurekalert, Photonics Media, Chemcognition, news.todonotbe, us.makemefeed,
grapheneentrepreneur, opennano and bebekmiring. This paper was also
selected as the “Important Achievement of Academia Sinica” in 2016. Our work here represents a major
discovery that should be very useful and timely for the development of
solid-state lighting. This technology was transfered to a private sector company in Taiwan. Summary. Research on semiconducting, conducting, dielectric
and optical properties of MOFs and their applications is still at the very
early stage of development. We are fortunate to have become a very
competitive research group and to have made significant contributions in this
important field. |
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Representative
Publications |
1.
Mendiratta, S.;
Usman, M.; Lu, K. L.* "Expanding the Dimensions of
Metal–Organic Framework Research towards Dielectrics," Coord. Chem.
Rev. 2018, 360, 77–91. 2.
Usman, M.; Mendiratta,
S.; Lu, K. L.* "Semiconductor
Metal–Organic Frameworks: Future Low Bandgap Materials," Adv. Mater. 2017, 29, 1605071. 3.
Haider, G.; Usman, M.; Chen, T. P.; Perumal, P.; Lu, K. L.;* Chen, Y. F.*
"Electrically Driven White Light Emission from Intrinsic Metal–Organic
Framework," ACS Nano 2016,
10, 8366–8375. (A press release distributed by ACS
Nano) 4.
Tseng, T. W.;* Luo, T. T.; Liao, S. H.; Lu, K.
H.; Lu, K. L.* "Isorecticular
Synthesis of Dissectible Molecular Bamboo Tubes of Hexarhenium(I)
Benzene-1,2,3,4,5,6-hexaolate Complexes,"
Angew. Chem., Int. Ed. 2016, 55, 8343–8347. (Cover Picture (Back Cover)) 5.
Usman, M.; Lu, K. L.* "Metal–Organic
Frameworks: The Future of Low-κ
Materials," NPG Asia Mater. 2016, 8, e333. 6.
Sathish, V.; Ramdass, A.; Thanasekaran, P.;* Lu, K.-L.;* Rajagopal,
S.* "Aggregation-Induced
Phosphorescence Enhancement (AIPE) Based on Transition Metal Complexes – An Overview," J. Photochem.
Photobiol. C: Photochem. Rev. 2015, 23, 25–44. 7.
Thanasekaran, P.; Lee, C. H.; Lu,
K. L.* "Neutral Discrete Metal–Organic Cyclic Architectures: Opportunities for Structural Features and Properties in Confined
Spaces," Coord. Chem. Rev. 2014, 280, 96–175. 8.
Thanasekaran, P.;
Lee, C. C.; Lu, K. L.* Acc. Chem. Res.
2012, 45, 1403–1418. 9.
Luo, T. T.; Wu, H. C.; Jao, Y. C.; Huang,
S. M.; Tseng, T. W.; Wen, Y. S.; Lee, G. H.; Peng, S.
M.; Lu, K. L.* Angew. Chem., Int. Ed. 2009, 48, 9461–9464. 10. Luo, T. T.; Tsai, H. L.; Yang, S. L.; Liu, Y. H.; Yadav, R. D.;
Su, C. C.; Ueng, C. H.; Lin, L. G.; Lu, K. L.* Angew. Chem., Int. Ed. 2005, 44, 6063-6067. |
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Patents
and Technology Transfer (2015-2018) |
Patents 1.
Lin,
C. H.; Luo, S. H.; Lu, K. L. "Superhydrophobic Mesoporous Metal Organic
Frameworks," ROC (Taiwan) Patent TW I641643, 2018. 2.
Lu, K.
L.; Usman, M.; Haider, G.; Mendiratta, S.; Luo, T. T.; Chen,
Y. F. "Natural White Light Emission from a Dopant Free
Strontium(II)–Organic Framework," ROC (Taiwan)
Patent TW I572611, 2017. 3.
Lu, K.
L.; Lin, H.
C.; Yin, J. F. Photosensitizer Dyes and Application of the Same, ROC (Taiwan) Patent TW I503320 B, 2015. Technology Transfer 1. "Organic
Electroluminescent Material Containing Alkaline Earth Metal Based Metal–Organic Frameworks and Organic
Electroluminescent Device Using the same", Eternal Materials Co., Ltd, 2017. |
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