Introducing Yi Long as a new Scientific Editor on Materials Horizons

Materials Horizons are delighted to welcome Dr Yi Long from Nanyang Technological University in Singapore as a Scientific Editor.

 

Image of Dr Yi Long

Yi Long received her PhD in Materials Science (2005) at Cambridge University with the full scholarship of Overseas Research Scholarship (ORS), United Kingdom Cambridge Trust and Graduate Scholarship of Selwyn College. She started as a Teaching Fellow in Nanyang Technology University Singapore in 2005 with focus on Lab-to-Fab technology transfer for industries. She successfully delivered three technologies include one coating process to Seagate Technology, the leading hard-disk company in the world. From 2011, she changed her title as lecturer and started her academic research center on smart materials and devices.

Her group currently focuses on two main topics; the integration of organic and inorganic smart materials with (1) energy saving applications, and (2) novel advanced functional devices. She has received several awards including the TechConnect Innovation Washington (2016), National Research Foundation Proof of Concept grant (2015), Minister of Education Tier 2 (2021), GreenAwards Top 3 London (2022). She is a Fellow of the Royal Society of Chemistry.

 

Read our interview with Yi below.

 

1. What attracted you to pursue a career in materials science and how did you get to where you are now?

My first degree is mechanical design with some courses covering materials fabrication, property, and utilization. When I was offered a scholarship in Singapore, I specialized in electronic materials. I enjoyed the process of making a new piece of material as it felt like creation. After my masters training, I worked as a lithography engineer in a top semiconductor company with good job potential, but a full overseas research scholarship by Cambridge University attracted me. Without much hesitation, I quitted my industrial job and my long journey of research embarked. My PhD training was using self-made ultra-high vacuum system to fabricate superlattice structure and studying its strengthening mechanism. It was tough. I remembered my daily lab work, spending two days carrying 10 KG flange to deposit one single sample and many hours in the dark TEM room to fathom why. My supervisor Dr. Bill Clegg was passionate about research. He sat next door and greeted us every morning cheerfully “Anything new?”. The PhD training did lay a solid foundation. What made it more unforgettable was pubbing, garden party and formal halls.

 

2. Why did you choose to specialize in your specific research field?

I have a unique career. Different from many researchers, after I graduated from Cambridge, I did not attend postdoc training. I was offered a job in Singapore as a teaching fellow to reunion with my husband-to-be. For the first six years of my career in Singapore, I focused on transferring technologies to local industries. I am happy that I have succeeded a few including one solution coating process to Seagate Technologies, the leading hard disk company in the world. After four years of hard work, a production line was set up. Although such work gave zero publications, it was rewarding. Industry and academic speak different languages. I am lucky that I am bilingual.

In 2011, I changed my title to Lecturer and was awarded one research program by National Research Foundation Singapore to specialize in thermochromic smart window. It was a humble beginning, with only one part time PhD student funded for the first three years.  Like all the other colleagues in the world, the beginning is always most gruelling.

 

3. What do you see as the most important scientific achievement of the last decade?

 This is a big question. I could only say, in my own research field, radiative cooling could be considered as one of the important as it spontaneously radiate long-wave infrared to the cold outer space. This could be one of the important solutions to global warming. There are many pioneer workers there, Profs. Fan Shangkui, Yin Xiaobo, Hu Liang Bing, Yang Ronggui and many more. The research community never stops exploration. “Don’t be afraid of boundless truth, there always exists joy in any step taken.” (Dr Hu Shih, Public Intellectual)

 

4. What excites you most about your area of research and what has been the most exciting moment of your career so far?

Buildings consume about 40% of global energy and window, one of the least energy-efficient parts, accounts for as high as 60% of energy loss in the buildings. In the United States, the window-associated energy consumption in buildings was estimated at 4% of nation’s total primary energy usage. The potential that I may contribute to this grand challenge excites me.

We started our research with radiative cooling regulated window in 2019. At the initial proof of concept stage, we designed outdoor experiment to convince that we were in the right track. Singapore is a tropical country. The data for summer season were readily accessible and predictably good. We need find a place to simulate the winter scenario. Singapore has a Snow City with the indoor temperature below -5 oC. We asked the special permission to do the experiment before the opening hour. My students Dr. Wang ShanCheng and Zhou Yang had to finish everything within 3 hours. When we saw the “room temperature” was higher than the commercial product, the three of us were thrilled. The day after we finished the experiment, the Snow City was sadly closed due to Covid lockdown.  

 

5. What is your favourite reaction or material, and why?

Vanadium dioxide and hydrogel. Both have profound science behind and great potential to be commercialized. I have spent one decade, trying hard to understand them more. Both materials are smart as they could give fascinating response with external stimulus automatically. I worked with heat stimulus most of the time. Such passive response of these two materials simply the device design and cut down the cost.  Less is more.

 

6. Which of your Materials Horizons publications are you most proud of and why?

Materials Horizons 8 (6), 1700-1710, 2021.  Vanadium dioxide (VO2) is a unique active plasmonic material due to its intrinsic metal–insulator transition, Dr Ke Yujie, my PhD student, experimented a new method to tailor the VO2 surface plasmon by manipulating its atomic defects. With the excellent collaboration with Prof. Sun Zhimei, this paper developed a quantitative understanding based on different representative defective VO2 systems. We further demonstrated the unconventional plasmonic applications including energy-saving smart windows, wearable camouflage devices, and encryption inks.

 

7. What attracted you to join the Editorial Board of Materials Horizons?

My submissions to Materials Horizons were not all smooth. I remembered one of them had one negative comment and the paper was rejected initially. I appealed and the editorial DID listen. The editorial team is professional and open minded. I admire profoundly.

 

8. What is your biggest passion outside of science?

Reading and Movies. When I was young, there were not much entertainment, reading and watching movies were my hobbies. Science is more about logical and rational reasoning. Humanities is about empathic understanding. I need balance my academic life with other horizons. We human can “see” the black holes, navigate the deepest sea, transmit data in light speed and even transform ourselves into immortal cyborg. How about humanity?

 

9. Why should young people study chemistry or related subjects?

Creation.  We synthesis, characterize and analyse. Materials shape the evolution of human civilization from Stone, Bronze, Iron to Silicon. What is next? It’s open to generations of materials scientists.

 

10. What impact do you feel that your area of research can make over the next 10 years?

 Paris treaty aims to hold the increase in the global average temperature to “well below” 2°C above pre-industrial levels. It is our scientist moral obligation and social responsivity to take actions. My research is focused on smart materials and device, but majority work is with smart window. There is not much technological advancement of commercial windows for many years. I do hope more breakthroughs could happen to bring the new window in the household with more functionality and much less carbon footprint.

 

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Horizons Community Board collection: Antimicrobial Materials and Surfaces

Antimicrobial Materials and Surfaces

A new online article collection guest edited by members of the Horizons Community Boards

The Community Boards that support Materials Horizons and Nanoscale Horizons provide a platform for early career researchers to share their experiences and ideas on scientific publishing. Working together and sharing their unique expertise, our Community Board members have recommended several key topics where significant, rapid progress has been made in the last two years. Today we are delighted to share their selected top articles published in the Horizons journals showcasing the most important advances in antimicrobial materials and surfaces.

Ignacio Insua and Nacho Martin-Fabiani

This collection is guest edited by Ignacio Insua (Universidade de Santiago de Compostela, Spain) and Nacho Martin-Fabiani (Loughborough University, UK). To get to know our guest editors, check out their Editorial article introducing this collection.

 

Read the collection

Read the introductory editorial

 

We hope you enjoy reading this collection.

With best wishes,

Dr Michaela Muehlberg

Executive Editor, Materials Horizons

Dr Heather Montgomery
Managing Editor, Nanoscale Horizons

 

 

 

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Outstanding Paper Award 2021

Celebrating the exceptional work published in Materials Horizons

Our annual Outstanding Paper Award celebrates some of the exceptional work published in Materials Horizons and Nanoscale Horizons, and the authors behind those articles. The winners were chosen by the Editorial and Advisory Boards based on the science presented and the work’s potential future impact, from papers published in 2021.

Please join us in congratulating the winners of the 2021 Outstanding Paper Award and we hope that you enjoy reading their outstanding articles as much as we did.

Materials Horizons Outstanding Article 2021

Biohybrid plants with electronic roots via in-vivo polymerization of conjugated oligomers

Daniela Parker, Yohann Daguerre, Gwennaël Dufil, Daniele Mantione, Eduardo Solano, Eric Cloutet, Georges Hadziioannou, Torgny Näsholm, Magnus Berggren, Eleni Pavlopoulou and Eleni Stavrinidou
Mater. Horiz., 2021, 8, 3295-3305

Materials Horizons Outstanding Article Runner-up 2021

Van der Waals solid solution crystals for highly efficient in-air photon upconversion under subsolar irradiance

Riku Enomoto, Megumi Hoshi, Hironaga Oyama, Hideki Agata, Shinichi Kurokawa, Hitoshi Kuma, Hidehiro Uekusa and Yoichi Murakami
Mater. Horiz., 2021, 8, 3449-3456

Materials Horizons Outstanding Review 2021

Catalytic Methods for Chemical Recycling or Upcycling of Commercial Polymers

Sophia C. Kosloski-Oh, Zachary A. Wood, Yvonne Manjarrez, Juan Pablo de los Rios and Megan E. Fieser
Mater. Horiz., 2021, 8, 1084-1129

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Materials Horizons indexed in MEDLINE®

All articles published in Materials Horizons from 2021 onwards will be indexed in the MEDLINE® database, significantly increasing their discoverability. This is a key database for biomedical researchers, so we are very pleased that everyone who publishes with us will get this increased exposure.

In addition to MEDLINE®, Materials Horizons is indexed in the Science Citation Index, EBSCO Essentials and Scopus.

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Issue 1 Focus Articles

We were delighted to include several Materials Horizons Focus articles in Issue 1 of Materials Horizons, a special issue in honor of Professor Seth Marder.

Materials Horizons Focus articles are free to access educational articles that address topic areas which are often misunderstood or require greater explanation. You can read the collection of Focus articles below.

Read the below selection of Materials Horizons Focus articles from the special issue in honor of Professor Seth Marder. All Materials Horizons Focus articles are free to access upon publication.

Electronic properties of metal halide perovskites and their interfaces: the basics

Fengshuo Zu, Dongguen Shin and Norbert Koch

Mater. Horiz., 2022, 9, 17-24 DOI: 10.1039/D1MH01106E

Plasmons: untangling the classical, experimental, and quantum mechanical definitions

Rebecca L. M. Gieseking

Mater. Horiz., 2022, 9, 25-42 DOI: 10.1039/D1MH01163D

Scattering techniques for mixed donor–acceptor characterization in organic photovoltaics

Thomas P. Chaney, Andrew J. Levin, Sebastian A. Schneider and Michael F. Toney

Mater. Horiz., 2022, 9, 43-60 DOI: 10.1039/D1MH01219C

Engineering of flat bands and Dirac bands in two-dimensional covalent organic frameworks (COFs): relationships among molecular orbital symmetry, lattice symmetry, and electronic-structure characteristics

Xiaojuan Ni, Hong Li, Feng Liu and Jean-Luc Brédas

Mater. Horiz., 2022, 9, 88-98 DOI: 10.1039/D1MH00935D

Organic building blocks at inorganic nanomaterial interfaces

Yunping Huang, Theodore A. Cohen, Breena M. Sperry, Helen Larson, Hao A. Nguyen, Micaela K. Homer, Florence Y. Dou, Laura M. Jacoby, Brandi M. Cossairt, Daniel R. Gamelin and Christine K. Luscombe

Mater. Horiz., 2022, 9, 61-87 DOI: 10.1039/D1MH01294K

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Materials Horizons Emerging Investigator Series – Zhengyang Bin

A methyl-shield strategy enables efficient blue thermally activated delayed fluorescence hosts for high-performance fluorescent OLEDs

An infographic highlighting a novel methyl-shield strategy to design ideal TADF hosts for the improvement of OLED performance

We are pleased to present an infographic showcasing outstanding work by Zhengyang Bin and Jingsong You et al. on a series of highly efficient TADF host materials via a novel methyl-shield strategy! Learn more in the infographic below or get the full story from their Materials Horizons article.

This Communication was also featured in our Emerging Investigator series, find out more about this series here and check out the full interview with Zhengyang in this Editorial.

A methyl-shield strategy enables efficient blue thermally activated delayed fluorescence hosts for high-performance fluorescent OLEDs
You Ran, Ge Yang, Yang Liu, Weiguo Han, Ge Gao, Rongchuan Su, Zhengyang Bin and Jingsong You
Mater. Horiz., 2021, 8, 2025-2031

Meet the authors

Zhengyang Bin, Sichuan University, China

Zhengyang Bin received his Ph.D. degree at Department of Chemistry, Tsinghua University in 2018, supervised by Prof. Yong Qiu. He is now working at College of Chemistry, Sichuan University. He was selected as Materials Horizons Emerging Investigator in 2021. His research interest focuses on developing structurally non-traditional organic materials for high-performance OLEDs.

Don’t forget to check out the Emerging Investigator series interview with Shengyang in this Editorial.

Jingsong You, Sichuan University, China

Jingsong You received his Ph.D. degree from Sichuan University in 1998. He then worked as a post-doctoral fellow or a research scientist at Chung-Hsing University (China), Institute für Organische Katalyseforschung (Germany), Iowa State University (USA), and University of California, Irvine (USA). In 2004, he joined the College of Chemistry of Sichuan University as Professor. His research interest focuses on developing new concepts and strategies to synthesize π-conjugated frameworks, especially via the transition metal catalyzed C−H functionalization of (hetero)arenes, and exploring their applications in the synthesis of organic optoelectronic materials.

You Ran, Sichuan University, China

Dr. You Ran was born in 1992 and received his Ph.D. degree in the Department of Chemistry from Sichuan University in 2021. His research focuses on efficient TADF host materials for TSF-OLEDs.

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Welcome to new Community Board member Weilai Yu

We are delighted to welcome a new Community Board member to Materials Horizons – join us in welcoming Weilai Yu to the journal!!

The Materials Horizons Community Board is made up of early career researchers, such as PhD students and postdocs, that are fundamental in the future development of the materials field.

We are pleased to welcome Weilai Yu to this outstanding group of early career researchers. 

Headshot of Weilai Yu

 

 

Weilai Yu, Stanford University, USA

ORCID: 0000-0002-9420-0702

Dr. Weilai Yu is currently a postdoc scholar of Chemical Engineering at Stanford working with Prof. Zhenan Bao. In 2021, he obtained his Ph.D in Chemistry at Caltech working with Prof. Nathan S. Lewis. His research interests include solar fuels, electrochemistry, Li battery and materials interface.

Connect with Weilai on Twitter: @yuweilai93 

 

 

Check out Weilai’s most recent publications in the Royal Society of Chemistry:

Catalytic open-circuit passivation by thin metal oxide films of p-Si anodes in aqueous alkaline electrolytes
Harold J. Fu, Pakpoom Buabthong, Zachary Philip Ifkovits, Weilai Yu, Bruce S. Brunschwig and Nathan S. Lewis
Energy Environ. Sci., 2022,15, 334-345, DOI: 10.1039/D1EE03040J

Investigations of the stability of etched or platinized p-InP(100) photocathodes for solar-driven hydrogen evolution in acidic or alkaline aqueous electrolytes
Weilai Yu,  Matthias H. Richter,  Pakpoom Buabthong, Ivan A. Moreno-Hernandez, Carlos G. Read, Ethan Simonoff, Bruce S. Brunschwig and Nathan S. Lewis
Energy Environ. Sci., 2021,14, 6007-6020, DOI: 10.1039/D1EE02809J

Investigations of the stability of GaAs for photoelectrochemical H2 evolution in acidic or alkaline aqueous electrolytes
Weilai Yu, Matthias H. Richter, Ethan Simonoff, Bruce S. Brunschwig and Nathan S. Lewis
J. Mater. Chem. A, 2021,9, 22958-22972, DOI: 10.1039/D1TA04145B

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Materials Horizons Emerging Investigator Series – Dae Sung Chung

A regioregular donor–acceptor copolymer allowing a high gain–bandwidth product to be obtained in photomultiplication-type organic photodiodes

An infographic highlighting a newly designed donor-acceptor polymer as the active layer of a photomultiplication-type organic photodiode

We are pleased to highlight an infographic showcasing excellent work by Bogyu Lim and Dae Sung Chung et al. on a new donor–acceptor copolymer! Learn more in the infographic below or get the full story from their Materials Horizons article.

This Communication was also featured in our Emerging Investigator series, find out more about this series here and check out the full interview with Dae Sung in this Editorial.

A regioregular donor–acceptor copolymer allowing a high gain–bandwidth product to be obtained in photomultiplication-type organic photodiodes
Juhee Kim, Chan So, Mingyun Kang, Kyu Min Sim, Bogyu Lim and Dae Sung Chung
Mater. Horiz., 2021, 8, 276-283

Meet the authors

Dae Sung Chung, Pohang University of Science and Technology (POSTECH), Republic of Korea

Prof. Dae Sung Chung received his B.S. in 2005 and Ph.D in 2010 at Department of Chemical Engineering in Pohang University of Science and Technology (POSTECH), Korea. He had been postdoctoral researcher supervised by Prof. Dmitri V. Talapin at University of Chicago for 2 years. He had worked for Chung-Ang University and Daegu Gyeongbuk Institute of Science & Technology (DGIST) for 4 year and 3 years, respectively, as an assistant and associate professor. In 2020, he joined Pohang University of Science and Technology (POSTECH) as an associate professor. His research interests include organic image sensors, printing M3D of organic electronics and molecular switch devices.

Don’t forget to check out the Emerging Investigator series interview with Dae Sung in this Editorial.

Juhee Kim, Pohang University of Science and Technology (POSTECH), Republic of Korea

Juhee Kim received her B.S. in 2018 at Department of Chemical Engineering in Chonnam National University, Korea. She received her M.S. in 2020 at Department of Energy Science & Engineering in Daegu Gyeongbuk Institute of Science & Technology (DGIST) under the guidance of Prof. Dae Sung Chung. Since 2020, she has been her Ph.D. course at Pohang University of Science and Technology (POSTECH) under the same supervisor. Her research interests include organic image sensors.

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Materials Horizons Emerging Investigator Series – Danqing Liu

Novel butterfly-shaped organic semiconductor and single-walled carbon nanotube composites for high performance thermoelectric generators

An infographic showcasing the design of new butterfly-shaped organic semiconductors

This week, we are delighted to present our latest infographic highlighting fantastic work by  et al. on a series of novel butterfly-shaped organic semiconductors by contorting the pentacenone/anthrone cores with steric substitutions! Learn more in the infographic below or get the full story from their Materials Horizons article.

This Communication was also featured in our Emerging Investigator series, find out more about this series here and check out the full interview with Danqing in this Editorial.

Novel butterfly-shaped organic semiconductor and single-walled carbon nanotube composites for high performance thermoelectric generators
Lai Wei, Hongfeng Huang, Chunmei Gao, Danqing Liu and Lei Wang
Mater. Horiz., 2021, 8, 1207-1215

Meet the authors

Danqing Liu, Shenzen University, China

Danqing Liu received her BSc degree in 2010 from the University of Science and Technology of China, and earned her PhD degree in Chemistry at the Chinese University of Hong Kong in 2014. She joined Shenzhen University as an assistant professor in the College of Material Science and Engineering in 2015. Currently, her research group focuses on organic semiconductors and electronic devices, including organic/hybrid thermoelectrics and organic field effect transistors.

Don’t forget to check out the Emerging Investigator series interview with Danqing in this Editorial.

Lei Wang, Shenzen University, China

Lei Wang conducted his MSc and PhD study in the Guangzhou Institute of Chemistry, Chinese Academy of Sciences, from 2001 to 2006. He then joined Shenzhen University and was promoted to full professor in 2011. Prof. Wang is currently the dean of College of Material Science and Engineering of Shenzhen University and the director of Shenzhen Key Laboratory of Polymer Science and Technology. His research interests include highly branched polymers, proton exchange membrane materials for fuel cells, conductive polymers, and organic thermoelectric materials.

Lai Wei, Shenzen University, China

Lei Wei received his MSc degree from East China Normal University in 2013, and obtained his PhD degree from Université Paris-Sud in 2018. He then completed Postdoctoral Fellowship in Shenzhen University from 2019–2020. He is now a senior scientist at BGI-Shenzhen. His research interests focus on organic semiconductor materials, natural product chemistry, and asymmetric organic catalysis.

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Materials Horizons Emerging Investigator Series – Juan José Vilatela

Tough sheets of nanowires produced floating in the gas phase

An infographic highlighting a new universal route to produce continuous sheets of inorganic nanowires

We are pleased to share with you our latest infographic highlighting the excellent work by  et al. on the synthesis of silicon nanowires directly assembled through their growth suspended in a gas stream, with textile-like properties and an order-of-magnitude higher toughness than monolithic analogues! Learn more in the infographic below or get the full story from their Materials Horizons article.

This Communication was also featured in our Emerging Investigator series, find out more about this series here and check out the full interview with Juan José in this Editorial.

Tough sheets of nanowires produced floating in the gas phase
Richard S. Schäufele, Miguel Vazquez-Pufleaua and Juan J. Vilatela
Mater. Horiz., 2020, 7, 2978-2984

Infographic describing the content of the article: Tough sheets of nanowires produced floating in the gas phase

Meet the authors

Image of Juan Jose Vilatela

Juan José Vilatela, IMDEA Materials, Spain

Juan José Vilatela has a PhD from the Department of Materials Science and Metallurgy of the University of Cambridge (2009). He leads a research group at IMDEA Materials, focused on the development of macroscopic materials made up of nanobuilding blocks in a way that the unique properties at the nanoscale are preserved through the assembly process and a new generation of high-performance engineering materials is produced. He has coordinated several academic and industrial research projects related to nanomaterials, including an ERC Starting Grant. He has been awarded the 2016 young investigator award by the European Society for Composite Materials and the 2018 “Miguel Catalán” under 40 investigator award by the Madrid Regional Government. In 2021 he co-founded Floatech, a spin-off company pursuing the industrialisation of a new sustainable process for the fabrication of Si anodes for the next generation of Lithium-ion batteries. Find the group on Twitter: @MNGMaterials

Don’t forget to check out the Emerging Investigator series interview with Juan José in this Editorial.

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