Welcome to our Emerging Investigators Series 2022! This series, led by Prof Shirley Nakagaki (Federal University of Paraná, Brazil) and Dr Fabienne Dumoulin (Acıbadem Mehmet Ali Aydınlar Universit, Türkiye), highlights the very best work from early-career researchers in all areas of chemistry. 10 papers were published as part of the collection spanning the breadth of chemistry on topics ranging from green and environmental chemistry, to biological and bioinorganic chemistry, as well as papers that propose theoretical calculations as solutions to chemistry problems. You can read all about the contributions in this accompanying Editorial prepared by Shirley.

We would like to take this opportunity to highlight an author from the series, Prof Dr Noémie Elgrishi. We interviewed Noémie to find out more about her area of research and her contribution to the series.

Impact of the choice of buffer on the electrochemical reduction of Cr(vi) in water on carbon electrodes
Callie M. Stern, Devin D. Meche and Noémie Elgrishi
RSC Adv., 2022,12, 32592-32599

Noémie Elgrishi is an assistant professor at Louisiana State University. A native of France, Noémie worked in the labs of Jonathan Nitschke (University of Cambridge) and Daniel Nocera (MIT, now Harvard University) during her Master’s degree (Sorbonne University, formerly University Pierre and Marie Curie – Paris 6). After obtaining a PhD from Sorbonne University working with Marc Fontecave (Collège de France), during which she was named a 2012 Scifinder Future Leader, she was a Postdoctoral Researcher under the mentorship of Jillian Dempsey (UNC-Chapel Hill) for 2 years. Since starting at LSU in 2017, Noémie’s group has developed a fundamental-science-first approach to interrogate environmentally relevant problems. Research centers on the intersection of electrochemistry and supramolecular chemistry to answer key questions related to water and energy challenges. Noémie Elgrishi received a CAREER award from the National Science Foundation in 2021 and will be an editorial broad member for the Journal of Coordination Chemistry starting in 2023.

Could you briefly explain the focus of your article to the non-specialist (in one or two sentences only) and why it is of current interest?

Electrochemical methods are well-suited to reduce toxic hexavalent chromium to purify drinking water, but the challenge is mitigating the energetic cost associated with the transfer of the large number of protons and electrons required all while using cheap carbon electrodes. Here we show how the choice of buffer, not simply the pH, influences the reaction and we also demonstrate a very simple way to recycle electrodes if they get fouled during use.

How big an impact could your results potentially have?

The work helps establish that in the conditions studied: 1) cheap carbon electrodes can be used instead of noble metals, 2) Cr(VI) reduction is gated by a similar proton-coupled electron transfer step in multiple buffers, 3) some buffers promote adsorption of the resulting Cr(III) on the electrode, and 4) it is possible to restore the electrode surface and regain activity with a simple rinse, without the need for re-polishing. Combined, these open the way to the development of water purification flow systems to reduce Cr(VI) in water.

Could you explain the motivation behind this study?

The motivation is to advance electrochemical water purification, specifically targeting toxic hexavalent chromium, by leveraging knowledge from the community working on Proton-Coupled Electron Transfers. At its core, the challenge of Cr(VI) reduction is the efficient transfer of multiple protons and electrons. This is thermodynamically easy but kinetically challenging. Before developing catalysts to mediate the transformation, it was important to identify the parameters influencing direct electroreduction of Cr(VI) at an electrode.

In your opinion, what are the key design considerations for your study?

Realizing that buffers are not inert innocent spectators! We are so used to thinking of buffers in water as a means to work at a fixed pH, without really considering the effect of the specific acid/bases added.

Which part of the work towards this paper proved to be most challenging?

Experimentally, the observation of Cr(III) plating on the electrode in certain conditions significantly increased the time required for data collection as freshly polished electrodes were required for every single scan. Scientifically, realizing that the buffer was the cause of these changes in behavior was the most challenging.

What aspect of your work are you most excited about at the moment?

I am excited about our progress on developing electrocatalysts to further mediate the Cr(VI) reduction transformation, as well as applying lessons learned to other problematic oxyanions contaminating water supplies.

How has your research evolved from your first article to this particular article?

Our fist paper on this project demonstrated that carbon electrodes are effective for the reduction of Cr(VI) in water across a wide range of pH. We were using a citrate buffer for that work as we were covering a large pH range. In this new paper we explore how that seemingly innocuous choice of buffer actually impacts many steps of the Cr(VI) reduction process.

What is the next step? What work is planned?

We would like to develop electrocatalysts to speed up the reaction and, critically, decrease the energy required (lowering the overpotential). We have made progress in that direction and hope to be able to share more soon.

Why did you want to publish in RSC Advances?

I value the RSC as a non-profit scientific society. I also love the ease of submitting papers to the RSC when using the template, with auto-populating fields which speeds up the submission process. I chose RSC Advances specifically as it is a general journal with a broad audience.

What are your thoughts on open access publishing?

It is fantastic to hear that the RSC, and others, are moving to open access. I just hope funding follows, since the current model is to let the researcher somehow cover the costs. This could create a model where only the top funded groups are even able to consider publishing in the top journals (given the large cost), and where decisions on which journal to consider to submit a paper are based on the cost first instead, of journal audience or fit.

Submit to RSC Advances today! Check out our author guidelines for information on our article types or find out more about the advantages of publishing in a Royal Society of Chemistry journal.

Keep up to date with our latest  Popular Advances articles, Reviews, Collections & more by following us on Twitter. You can also keep informed by signing up to our E-Alerts.

Welcome to our Emerging Investigators Series 2022! This series, led by Prof Shirley Nakagaki (Federal University of Paraná, Brazil) and Dr Fabienne Dumoulin (Acıbadem Mehmet Ali Aydınlar Universit, Türkiye), highlights the very best work from early-career researchers in all areas of chemistry. 10 papers were published as part of the collection spanning the breadth of chemistry on topics ranging from green and environmental chemistry, to biological and bioinorganic chemistry, as well as papers that propose theoretical calculations as solutions to chemistry problems. You can read all about the contributions in this accompanying Editorial prepared by Shirley.

We would like to take this opportunity to highlight an author from the series, Dr Kelly M. Schultz. We interviewed Kelly to find out more about her area of research and her contribution to the series.

Gelation phase diagrams of colloidal rod systems measured over a large composition space
Shiqin He, Marco Caggioni, Seth Lindberg and Kelly M. Schultz
RSC Adv., 2022,12, 12902-12912

Dr. Kelly M. Schultz is an Associate Professor in the Department of Chemical and Biomolecular Engineering at Lehigh University. She obtained her B.S. in Chemical Engineering from Northeastern University in 2006 and a Ph.D. in Chemical Engineering with Professor Eric Furst from the University of Delaware in 2011 as a National Science Foundation graduate research fellow. While at Delaware, she was invited to speak in the American Chemical Society Excellence in Graduate Polymers Research Symposium and was selected as the Fraser and Shirley Russell Teaching Fellow. Following her PhD, she was a Howard Hughes Medical Institute postdoctoral research associate at the University of Colorado at Boulder working in the laboratory of Professor Kristi Anseth. As a postdoc, she was invited to participate in the Distinguished Young Scholars Summer Seminar Series at the University of Washington. She began her position as Assistant Professor at Lehigh University in 2013, was named a P.C. Rossin Assistant Professor from 2016 – 2018 and was promoted to Associate Professor in 2019. Dr. Schultz was named one of TA Instruments Distinguished Young Rheologists (2014), awarded a NSF CAREER award (2018), the Lehigh University Libsch Early Career Research Award (2019), the P.C. Rossin College of Engineering and Applied Science Excellence in Research Scholarship & Leadership (2020), a National Institutes of Health – National Institute of General Medical Sciences Maximizing Investigators’ Research Award (MIRA R35, 2022) and named the Pirkey Centennial Lecturer by the McKetta Department of Chemical Engineering at the University of Texas at Austin (2022). Dr. Schultz and her research group study emerging gel materials developed for applications from consumer products to materials that can enhance and restart wound healing. Of particular interest is the development of bulk and microrheological techniques that measure how 3D encapsulated human mesenchymal stem cells degrade and remodel synthetic hydrogel scaffolds during motility.

Could you briefly explain the focus of your article to the non-specialist (in one or two sentences only) and why it is of current interest?

This work focuses on characterizing the material properties of different formulations of a colloidal fibrous gel. These materials are used in fabric and home care products and this work provides a table where the desired material properties can be looked up eliminating trial-and-error experiments during product development.

How big an impact could your results potentially have?

This work is in collaboration with engineers at Procter & Gamble. We are working with some of their materials but also exploring new materials with similar dimensions that they are interested in using in consumer products. So there is potential for our work to inform the design of new products. To the greater scientific community, this work provides a methodology for tackling material characterization over a large formulation space, which can also have an impact.

Could you explain the motivation behind this study?

As I mentioned in the previous question, this has been a long standing collaboration with Procter & Gamble. We started working with colloidal fibers that they currently use in their fabric and home care products. Since then we have expanded the work to investigate different Fibers to determine if they can also be used as rheological modifiers. Beyond enabling the use of these materials in new products, my group is interested in developing new characterization and analysis techniques. This work uses established characterization techniques to collect data but as you can see in the presentation of the data, we aim to maximize the information we can get from a measurement and that is always a motivation behind our work.

In your opinion, what are the key design considerations for your study?

The key design consideration for our study was to systematically traverse a large formulation space experimentally. Then we wanted to find a way to present this large set of data that would enable a researcher that is working in formulations to use this as a lookup table to inform the design of their product.

Which part of the work towards this paper proved to be most challenging?

The interpretation and presentation of the data was quite challenging. We had a large amount of data and at some point you realize that the more data you have the harder it is to interpret it. Being able to organize it in a way that we could show trends and draw conclusions was really a challenge.

What aspect of your work are you most excited about at the moment?

This work is evolving to use more sustainable colloidal fibers, something both my group and our collaborators are interested in. This is really exciting since it has the potential to use a waste product in new formulations.

How has your research evolved from your first article to this particular article?

Our first article on this work was developed analysis methods to interpret microrheological data to characterize a heterogeneous colloidal gel. All of the work since that time has built upon this to give us a toolbox of characterization and analysis techniques that allows us to effectively interpret our data, even in complex systems. We have also started characterizing new colloidal gel systems, which are very exciting. Using these techniques and previous knowledge to characterize the rheology of these materials, we hope to enable their use in products.

What is the next step? What work is planned?

As mentioned previously, we are moving on to a sustainable colloid, a waste product. We are characterizing this material to see if we can modify the colloid to enable it’s use as a rheological modifier in fabric and home care products. We are really excited about this work and the direction that the project is taking.

Why did you want to publish in RSC Advances?

We thought that this was not only an interesting study of these particular materials but also a really nice way to characterize, analyze and present this type of data. The reason we chose RSC Advances was because of the wide readership. We thought getting not only the results but the technique to a wider audience would have a bigger impact.

Submit to RSC Advances today! Check out our author guidelines for information on our article types or find out more about the advantages of publishing in a Royal Society of Chemistry journal.

Keep up to date with our latest  Popular Advances articles, Reviews, Collections & more by following us on Twitter. You can also keep informed by signing up to our E-Alerts.

Welcome to our Emerging Investigators Series 2022! This series, led by Prof Shirley Nakagaki (Federal University of Paraná, Brazil) and Dr Fabienne Dumoulin (Acıbadem Mehmet Ali Aydınlar Universit, Türkiye), highlights the very best work from early-career researchers in all areas of chemistry. 10 papers were published as part of the collection spanning the breadth of chemistry on topics ranging from green and environmental chemistry, to biological and bioinorganic chemistry, as well as papers that propose theoretical calculations as solutions to chemistry problems. You can read all about the contributions in this accompanying Editorial prepared by Shirley.

We would like to take this opportunity to highlight an author from the series, Prof Dr Julio Cezar Pastre. We interviewed Julio to find out more about his area of research and his contribution to the series.

Continuous flow Meerwein–Ponndorf–Verley reduction of HMF and furfural using basic zirconium carbonate
Henrique Magri Marçon and Julio Cezar Pastre
RSC Adv., 2022,12, 7980-7989

Julio C. Pastre obtained his PhD in 2009 under the guidance of Professor Carlos Roque D. Correia at the University of Campinas – UNICAMP. He then worked as a research scientist at Rhodia-Solvay before moving back to UNICAMP for postdoctoral studies with Professor Ronaldo A. Pilli. In 2012, he joined the group of Professor Steven V. Ley at the University of Cambridge. Two years later, Julio established his independent research group at UNICAMP and recently became an Associate Professor. In 2019, he was recognized as an ‘Emerging Investigator’ by Reaction Chemistry & Engineering and as a ‘New Talent from the Americas’ by RSC Medicinal Chemistry. Julio was chosen by the editorial boards of Synthesis, Synlett, and Synfacts as one of their ‘Thieme Chemistry Journals Awardees’ for 2023. His research interest focuses on the development of new synthetic methods in batch under microwave irradiation and under continuous flow conditions for the synthesis of platform molecules, new chemicals and APIs.

Could you briefly explain the focus of your article to the non-specialist and why it is of current interest?

In this work, we explored the valorization of two biobased chemicals (HMF and furfural) that can, for example, be used in the synthesis of polymers and are important intermediates to reduce our fossil-dependency and mitigate environmental issues.

How big an impact could your results potentially have?

By designing new synthetic methods that take full advantage of the capabilities of new enabling technologies, one will inevitably end up with greener, cleaner processes.

Could you explain the motivation behind this study?

We are keen to develop new processes for the synthesis of high value-added compounds from biomass derivatives in continuous flow regime.

In your opinion, what are the key design considerations for your study?

Our group has already identified continuous flow processing as a fundamental technology for the valorization of biomass derivatives, so that any designed methods can be rapidly scaled to manufacture. Moreover, many of the principles of Green Chemistry can be met by embracing new technologies that are inherently cleaner when compared to the traditional approaches.

Which part of the work towards this paper proved to be most challenging?

Although the process concerns just a reduction of an aldehyde, the obtention of a selective process is quite challenging since several competitive reactions can take place leading, for example, to the formation of humins.

What aspect of your work are you most excited about at the moment?

We are excited about the impact that flow chemistry can have in the valorization of biomass considering its key advantages, such as better control of heat and mass transfer, improved mixing, and safety profile.

How has your research evolved from your first article to this particular article?

Most of our previous works were done under homogeneous conditions. The use of heterogeneous catalysts in a fixed-bed reactor represents a good evolution in view of catalyst recycling, product separation and throughput.

What is the next step? What work is planned?

We want to apply these findings to other biobased chemicals and develop an integrated approach for the valorization of these materials.

Why did you want to publish in RSC Advances?

I’m a reader of RSC Advances, which publishes high impact research. So, it is a great pleasure to have our work published in such a prestigious journal.

What are your thoughts on open access publishing?

I believe open access publishing is going to be dominant soon since it gives access to a broader community and “democratize” science.

Submit to RSC Advances today! Check out our author guidelines for information on our article types or find out more about the advantages of publishing in a Royal Society of Chemistry journal.

Keep up to date with our latest  Popular Advances articles, Reviews, Collections & more by following us on Twitter. You can also keep informed by signing up to our E-Alerts.

We are delighted to present the 2022 edition of the RSC Advances Emerging Investigators Series! Following the success of our inaugural 2021 edition, we are excited to continue highlighting the chemistry research being conducted by some of the leading investigators in our community.

This year’s Series Editors were Professor Shirley Nakagaki (Federal University of Paraná, Brazil) and Dr Fabienne Dumoulin (Acıbadem Mehmet Ali Aydınlar Universit, Türkiye. The 10 articles featured come from various countries and continents, delving into molecular and solid-state chemistry with diverse applications, primarily in the areas of green and environmental chemistry, as well as biological and bioinorganic chemistry. Additionally, we have included papers that propose theoretical calculations as solutions to chemistry problems. You can read all about the contributions in this accompanying Editorial, prepared by Shirley.

Please see below the biographies of some of the brilliant authors who have been published in the 2022 collection:

Ashutosh Kumar Mishra

Modulating catalytic activity of a modified flavin analogue via judicially positioned metal ion toward aerobic sulphoxidation

Dr Ashutosh Kumar Mishra was born in Gorakhpur and obtained his master’s degree from Gorakhpur university. He later moved to IIT-Kanpur for his doctoral degree where he worked under the supervision of Prof Sandeep Verma on scalable structural complexities in metal-nucleobase interactions. Working as postdoctoral scholar with Prof Frederick D Lewis at Northwestern University, USA, he was involved in investigating the dynamics and mechanism of photoinduced charge transport in DNA. Ashutosh started his independent research career at IIT-Hyderabad India where he is currently working as assistant professor. His current research interest focuses on understanding and exploring bio-molecular systems through small chemical modifications, especially synthetic peptide motifs and flavin based dinucleotide systems with potential biomedical applications and for next generation biomimetic systems.

Noémie Elgrishi

Impact of the choice of buffer on the electrochemical reduction of Cr(vi) in water on carbon electrodes

Noémie Elgrishi is an assistant professor at Louisiana State University. A native of France, Noémie worked in the labs of Jonathan Nitschke (University of Cambridge) and Daniel Nocera (MIT, now Harvard University) during her Master’s degree (Sorbonne University, formerly University Pierre and Marie Curie – Paris 6). After obtaining a PhD from Sorbonne University working with Marc Fontecave (Collège de France), during which she was named a 2012 Scifinder Future Leader, she was a Postdoctoral Researcher under the mentorship of Jillian Dempsey (UNC-Chapel Hill) for 2 years. Since starting at LSU in 2017, Noémie’s group has developed a fundamental-science-first approach to interrogate environmentally relevant problems. Research centers on the intersection of electrochemistry and supramolecular chemistry to answer key questions related to water and energy challenges. Noémie Elgrishi received a CAREER award from the National Science Foundation in 2021 and will be an editorial broad member for the Journal of Coordination Chemistry starting in 2023.

Lars Goerigk

Noncovalently bound excited-state dimers: a perspective on current time-dependent density functional theory approaches applied to aromatic excimer models

Lars Goerigk is an Associate Professor at the School of Chemistry, The University of Melbourne, Australia. In 2011, he obtained his PhD in the group of Prof. Stefan Grimme, Münster in Germany, and then relocated to The University of Sydney to work with Prof. Jeffrey Reimers before joining his present institution in 2014. His area of expertise is Theoretical and Computational Quantum Chemistry with a focus on Density Functional Theory for ground and excited states. A/Prof. Goerigk is a former Discovery Early Career Researcher Award Fellow (Australian Research Council), a recipient of the 2017 Physical Chemistry Division Lectureship (Royal Australian Chemical Institute) and an awardee of the 2019 Le Fèvre (Australian Academy of Science) and 2020 Rennie Memorial medals (Royal Australian Chemical Institute). Recently, he won the 2022 Pople Medal (Asia-Pacific Association of Theoretical & Computational Chemists), the highest award for a theoretical and computational chemist under the age of 45 in the Asia Pacific.

Julio C. Pastre

Continuous flow Meerwein–Ponndorf–Verley reduction of HMF and furfural using basic zirconium carbonate

Julio C. Pastre obtained his PhD in 2009 under the guidance of Professor Carlos Roque D. Correia at the University of Campinas – UNICAMP. He then worked as a research scientist at Rhodia-Solvay before moving back to UNICAMP for postdoctoral studies with Professor Ronaldo A. Pilli. In 2012, he joined the group of Professor Steven V. Ley at the University of Cambridge. Two years later, Julio established his independent research group at UNICAMP and recently became an Associate Professor. In 2019, he was recognized as an ‘Emerging Investigator’ by Reaction Chemistry & Engineering and as a ‘New Talent from the Americas’ by RSC Medicinal Chemistry. Julio was chosen by the editorial boards of Synthesis, Synlett, and Synfacts as one of their ‘Thieme Chemistry Journals Awardees’ for 2023. His research interest focuses on the development of new synthetic methods in batch under microwave irradiation and under continuous flow conditions for the synthesis of platform molecules, new chemicals and APIs.

Sónia P.M. Ventura

Recovery of bacterioruberin and proteins using aqueous solutions of surface-active compounds

Sónia P.M. Ventura is an Associate Professor at the Chemistry Department of University of Aveiro and coordinator of group 4 (Biorefinery, Recycling and Bio-based Materials) of the Aveiro Institute of Materials (CICECO). In 2021, Prof Sónia Ventura was invited to be part of the coordination members of European Federation of Biotechnology (EFB) and since the end of 2022, Prof Ventura is member of the Steering Board of European Algae Biomass Association (EABA).

Prof Ventura is a well-recognized researcher working on the use of alternative solvents (e.g. ionic liquids, eutectic solvents and more recently bio-solvents) and engineering technologies aiming to develop the concepts of Biorefinery and Circular Economy by following the guidelines of Green Chemistry. In the last 10 years, Prof Ventura is deeply devoted to the study of strategies to valorize marine raw materials and residues derived from several industrial sectors, these including fishery and agri-food industries.

Susmita De

Cation–π and hydrophobic interaction controlled PET recognition in double mutated cutinase – identification of a novel binding subsite for better catalytic activity

Dr Susmita De obtained her Ph. D. in 2010 from University of Hyderabad under the guidance of Prof Eluvathingal D. Jemmis. She has gained research experience in various area of theoretical chemistry by working with Prof Gernot Frenking at the Department of Chemistry, Philipps-University Marburg, Germany, Prof. Keiji Morokuma at the Fukui Institute for Fundamental Chemistry, Kyoto University, Japan and Prof Martin Zacharias at the Department of Physics, Technical University Munich, Germany. She is the recipient of Fast Track early career research award, INSPIRE Faculty award, Core research grant from Government of India and EMBO visiting scientist fellowship. Her current research focus is on the detailed molecular-level understanding of structure and mechanism of complex molecular, biomolecular and materials systems by molecular dynamics simulations and quantum mechanical/molecular mechanical methods. She applies the knowledge of chemical bonding to predict the properties and reactivities of complex systems. Her foundation in chemistry had helped her to translate the molecular level knowledge to the areas of Biology and Material science, which can establish a synergy between theory and experiment to realise fruitful prediction of theory-driven experiments and synthesis.

Kelly M. Schultz

Gelation phase diagrams of colloidal rod systems measured over a large composition space

Dr Kelly M. Schultz is an Associate Professor in the Department of Chemical and Biomolecular Engineering at Lehigh University. She obtained her B.S. in Chemical Engineering from Northeastern University in 2006 and a Ph.D. in Chemical Engineering with Professor Eric Furst from the University of Delaware in 2011 as a National Science Foundation graduate research fellow. While at Delaware, she was invited to speak in the American Chemical Society Excellence in Graduate Polymers Research Symposium and was selected as the Fraser and Shirley Russell Teaching Fellow. Following her PhD, she was a Howard Hughes Medical Institute postdoctoral research associate at the University of Colorado at Boulder working in the laboratory of Professor Kristi Anseth. As a postdoc, she was invited to participate in the Distinguished Young Scholars Summer Seminar Series at the University of Washington. She began her position as Assistant Professor at Lehigh University in 2013, was named a P.C. Rossin Assistant Professor from 2016 – 2018 and was promoted to Associate Professor in 2019. Dr. Schultz was named one of TA Instruments Distinguished Young Rheologists (2014), awarded a NSF CAREER award (2018), the Lehigh University Libsch Early Career Research Award (2019), the P.C. Rossin College of Engineering and Applied Science Excellence in Research Scholarship & Leadership (2020), a National Institutes of Health – National Institute of General Medical Sciences Maximizing Investigators’ Research Award (MIRA R35, 2022) and named the Pirkey Centennial Lecturer by the McKetta Department of Chemical Engineering at the University of Texas at Austin (2022). Dr Schultz and her research group study emerging gel materials developed for applications from consumer products to materials that can enhance and restart wound healing. Of particular interest is the development of bulk and microrheological techniques that measure how 3D encapsulated human mesenchymal stem cells degrade and remodel synthetic hydrogel scaffolds during motility.

Thank you so much to the Series Editors, Associate Editors and to all our reviewers at RSC Advances for their ongoing support and contribution, helping us to bring together such a fantastic collection of articles.

Looking forward: Emerging Investigator Series 2023!

We are pleased to announce that Shirley and Fabienne will continue on as the Series Editors for the 2023 Emerging Investigator series! We can’t wait to see what the next early career investigators have been working on in Chemistry.

Selection for the Emerging Investigators series comes in part from the recommendations of our Editorial Board, as well as our Associate Editors. Authors can also self-nominate for participation and review by our Associate Editors. Articles can be submitted to the series at any time and will be accepted and published throughout the year.

If you would like to be involved in our upcoming series, please look at our webpage here for more information or submit now!

For any questions do not hesitate to contact us at advances-rsc@rsc.org

Submit to RSC Advances today! Check out our author guidelines for information on our article types or find out more about the advantages of publishing in a Royal Society of Chemistry journal.

Keep up to date with our latest Popular Advances, Reviews, Collections & more by following us on Twitter. You can also keep informed by signing up to our E-Alerts.