Author Archive

Call for papers: Photocatalytic Nanomaterials

Call for papers: Photocatalytic Nanomaterials for Clean Energy, Renewable Chemicals production, and Sustainable Catalysis

Guest edited by Rajeev Ahuja and Rajendra Srivastava 

We are delighted to announce an open call for papers to our new themed collection focusing on photocatalytic nanomaterials!

 

 

 

Guest Editors: Rajeev Ahuja (Uppsala University, Sweden) and Rajendra Srivastava (Indian Institute of Technology Ropar, India)

Nanocatalytic materials can solve energy and environmental problems by penetrating plastic polymer waste and providing a high surface area with exposed active sites to catalyze the reactions to produce sustainable chemicals and fuels. The process will be highly sustainable if light energy, including solar energy, is utilized to produce clean energy and chemicals. Thus, efforts must be made to develop novel materials or engineer materials for harvesting light energy for producing clean energy and chemicals.

In this collection, we welcome both review and research articles on the following topics:

  • Photocatalytic nanomaterials and process for H2 production, CO2 to chemicals and fuels
  • Photocatalytic nanomaterials and biomass conversion to chemicals and fuels
  • Engineering photocatalytic nanomaterials for sustainable catalysis
  • Photocatalytic nanomaterials for photoreforming of plastic waste
  • Computational study on designing new photocatalytic nanomaterials for clean energy

You are welcome to submit an article within the scope before 20 February 2024.

If you are interested in contributing to this collection, please get in touch with the Editorial Office by email.

Please note that article processing charges apply to all articles submitted to Nanoscale Advances if, following peer-review, they are accepted for publication. Exceptions include researchers at Research4Life Group A and B countries, and those whose institutes have an existing deal that covers publication in our gold open access journals. Details of the APC and discounted rates can be found here.

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Supercapacitors: new themed collection in Nanoscale Advances

Supercapacitors

Guest edited by Zhaojun Han, Ruopian Fang, Dewei Chu, Da-wei Wang.
Advisory Guest Editor Kostya (Ken) Ostrikov

We are delighted to present to you a diverse set of works showcasing exciting new research on supercapacitors, particularly electrode materials and high voltage materials from basic concepts to applications.

A major challenge for supercapacitors is that conventional devices have a relatively low energy density, which is about 20 to 40 times lower than that of lithium-ion batteries. Significant research effort has therefore been devoted to improving the energy density without compromising their excellent power density.

This themed collection features research papers on asymmetrical supercapacitors, multifunctional supercapacitors, and more. Articles are published in Nanoscale Advances so they are all open access and freely available.

 

 

A small selection of papers are featured below.

Introduction to Supercapacitors
Zhaojun Han, Ruopian Fang, Dewei Chu, Da-Wei Wang and Kostya (Ken) Ostrikov
Nanoscale Adv., 2023, Advance Article

Recent advances in supramolecular self-assembly derived materials for high-performance supercapacitors
Honghong Cheng, Ruliang Liu, Ruyi Zhang, Lan Huang and Qiaoyi Yuan
Nanoscale Adv., 2023, 5, 2394-2412

Facile fabrication of graphene-based high-performance microsupercapacitors operating at a high temperature of 150 °C
Viktoriia Mishukova, Nicolas Boulanger, Artem Iakunkov, Szymon Sollami Delekta, Xiaodong Zhuang, Alexandr Talyzin and Jiantong Li
Nanoscale Adv., 2021, 3, 4674-4679

 

We hope you enjoy reading the special collection.

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Themed Collection: Epitaxial growth of nanostructures and their properties

Epitaxial growth of nanostructures and their properties

Guest edited by Jin Zou

We are delighted to present to you a diverse set of works showcasing the development of epitaxial nanostructures, in which their outstanding properties are obtained due to the epitaxy.

 

 

A key fabrication technique for nanoscale materials is the bottom-up approach. Epitaxial growth allows the grown nanostructures to have well defined orientation relationships, crystallographic directions/planes, crystal structures/phases, and facets/interfaces with their underlying substrates. Such unique features are often essential for securing their unique and high-efficient applications.

In the recent decades, epitaxial growth has been widely employed to grow various advanced nanostructures, including semiconductor nanostructures (such as quantum dots, semiconductor nanowires and quantum wells), 2D nanostructures (including ultra-thin nanosheets), and hierarchical nanostructured metal-organic frameworks (MOF-on-MOF).

This themed collection features work covering the development of these three groups of epitaxial nanostructures, in which their outstanding properties are obtained due to the epitaxy. Articles are published in Nanoscale Advances so they are all open access and freely available.

 

A small selection of papers are featured below:

Epitaxial growth of crystal phase quantum dots in III–V semiconductor nanowires
Miguel Sinusia Lozano and Víctor J. Gómez
Nanoscale Adv., 2023, 5, 1890-1909

Complications in silane-assisted GaN nanowire growth
Nian Jiang, Saptarsi Ghosh, Martin Frentrup, Simon M. Fairclough, Kagiso Loeto, Gunnar Kusch, Rachel A. Oliver and Hannah J. Joyce
Nanoscale Adv., 2023, 5, 2610-2620

Polarization-dependent plasmonic heating in epitaxially grown multilayered metal–organic framework thin films embedded with Ag nanoparticles
Kenji Okada, Risa Mashita, Arisa Fukatsu and Masahide Takahashi
Nanoscale Adv., 2023, 5, 1795-1801

 

We hope you enjoy reading the special collection!

 

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Call for papers: Nanocatalysis beyond CO2 activation

Contribute to a new themed collection in Nanoscale Advances

We are delighted to announce an open call for papers to our new themed collection focusing on nanocatalysis beyond CO2 activation!

 

Guest Editors: Yude Su (University of Science and Technology of China, China) and Yanwei Lum (National University of Singapore, Singapore)

 

Electrocatalysis is crucial for facilitating the sustainable production of chemical feedstocks and chemical fuels. For example, CO2 reduction to value-added chemicals has attracted significant research interest in recent years. Beyond this topic, research efforts are urgently needed to expand the spectrum of electrocatalytic reactions to enable more avenues for decarbonization. Hence, this themed collection will focus on important and upcoming areas of electrocatalytic reactions, including but not limited to nitrogen reduction, upgrading of biomass derived molecules and hydrogen peroxide production. Of interest here is the important role that nanoscience can play in the development of electrocatalytic materials to efficiently facilitate these reactions.

 

You are welcome to submit an original research article within the scope before 15 December 2023.

 

If you are interested in contributing to this collection, please get in touch with the Editorial Office by email at nanoscaleadvances-rsc@rsc.org 

 

Please note that article processing charges apply to all articles submitted to Nanoscale Advances if, following peer-review, they are accepted for publication. Details of the APC and discounted rates can be found here.

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Measuring the Nanoscale – Theoretical Models and Molecular Probe Experiments

An infographic depicting a new model for investigating the properties of hot charge carriers at semiconductor surfaces

A self-consistent model to link surface electronic band structure to the voltage dependence of hot electron induced molecular nanoprobe experiments

Peter A. Sloan and Kristina R. Rusimova

Nanoscale Adv., 2022,4, 4880-4885, DOI: 10.1039/D2NA00644H

 

 

 

Meet the authors

Photo of Dr Kristina R. Rusimova

 

Dr Kristina R. Rusimova obtained her PhD in atomic manipulation with the scanning tunnelling microscope from the University of Bath in 2016. Following a short postdoctoral position in photonics, she joined the Department of Physics at the University of Bath as an independent Prize Fellow in 2018 and as a tenured Lecturer (Assistant Professor) in 2021. In 2022 she was part of the team awarded the Royal Society of Chemistry’s Faraday Division Horizon Prize for the discovery of chiroptical harmonic scattering. Her research interests include single molecule manipulation, quantum optics, advanced materials, and speciality optical fibres.

 

 

Photo of Dr Peter A. Sloan

 

Dr Peter A. Sloan received an undergraduate Masters degree in Chemical Physics from the University of Edinburgh in 1999 and a PhD from the University of Birmingham in 2004. He was a Royal Society (International Outgoing) Fellow 2004-2005 in the group of Nobel Laureate Prof John C. Polanyi at the University of Toronto. He gained an independent Lectureship (Assistant Professor) position at the University of Bath in 2010 and was promoted to Senior Lecturer (Associate Professor) in 2016. Peter’s research has focused on using atomic manipulation with an STM to measure and uncover the physics of hot-electrons at semi-conductor surfaces. He is also a founder and the overall Director of the Bath Physics Observatory.

 

 

 

What aspect of your work are you most excited about at the moment and what do you find most challenging about your research?

  • Dr Peter Sloan: Our work has the chance to show that state-of-the-art atomic manipulation can be used to help real-world problems. The most challenging aspect is learning how to make true measurement of what we’re after, rather than say having the influence of the arbitrary experimental parameters or limitations of the apparatus muddy the waters.
  • Dr Kristina Rusimova: Experimental automation has been the backbone for most of our recent scientific breakthroughs. I am excited about the prospect of opening up our automation protocols to the scanning probe microscopy community worldwide through open source software and combining them with machine learning algorithms, which could push surface science to an entirely new level.

 

How do you feel about Nanoscale Advances as a place to publish research on this topic?

  • Dr Peter Sloan: Nanoscale Advances is a fantastic place to publish. It is highly regarded, fast reviewing and we had some of the best, most fair, and rigorous reports we’ve had.
  • Dr Kristina Rusimova: The submission and review process have been smooth, efficient, and rigorous. Nanoscale Advances has a well-established portfolio of scanning probe microscopy research, and our paper sits nicely within it.

 

Can you share one piece of career-related advice or wisdom with other early career scientists?

  • Dr Peter Sloan: Work with good people. Have a work-life balance rather than think you have a work-life balance.
  • Dr Kristina Rusimova: Don’t be scared of rejection and learn how (and when) to say “no”. Have fun with your science.
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Detecting Cancerous Cells with Bio-compatible Gelatin-based Nanoprobes

An infographic highlighting gelatin-based nanoprobes that can detect cancerous cells during image-guided surgery

Protease-activated indocyanine green nanoprobes for intraoperative NIR fluorescence imaging of primary tumors
Kyekyoon (Kevin) Kim, Viktor Gruev, Hyungsoo Choi et al.
Nanoscale Adv., 2022,4, 4041-4050, DOI: 10.1039/d2na00276k

 

Meet the authors

This article reports the collaborative efforts of two research laboratories: Thin Film and Charged Particles (TFCP) Research Lab (PIs. Kyekyoon (Kevin) Kim and Hyungsoo Choi) and Biosensors Lab (PI. Viktor Gruev) at the University of Illinois at Urbana-Champaign. TFCP Lab consists of multidisciplinary biomedical researchers formulating versatile biomaterial-based micro/nanoparticles incorporating drugs, fluorophores, and live-cells for various biomedical applications including the treatment of type-1 diabetes, ischemic stroke, and cancer. The scientists in Biosensors Lab are developing novel bio-inspired imaging technologies, highly sensitive and capable of differentiating multiple tumor-specific fluorophores, to provide surgeons with enhanced intraoperative imaging experiences during cancer surgery.

 

 

(a) What aspect of your work are you most excited about at the moment and what do you find most challenging about your research?

The exciting part is having opportunities to collaborate with many experts from different fields of science and engineering. The harmonious teamwork and support allow us to explore new ideas and conduct innovative research. The challenging part is finding the balance between innovation and clinical translation. Novelty in research offers new insights, but that wouldn’t necessarily lead to it being clinically acceptable. To ensure that we are doing translational research, we have to consider its relevance and applicability to patient-oriented healthcare.

 

(b) How do you feel about Nanoscale Advances as a place to publish research on this topic?

Nanoscale Advances is one of the fastest-growing journals, encompassing a wide scope of topics in nanotechnology. With that being said, we are excited to be able to showcase our work on such a platform.

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