Chemical Communications Blog

We are excited to share the success of Marcin Lindner’s first-time independent article in ChemComm; “V-shaped donor–acceptor organic emitters. A new approach towards efficient TADF OLED devices” included in the full milestones collection. 

Read our interview with Marcin below.

What are the main areas of research in your lab and what motivated you to take this direction?

Research in my group has focused on the rational design and the synthesis of functional aromatic materials such as concave N-doped polycyclic aromatic hydrocarbons (N-PAHs), curved heteroatom-doped nanographenes, donor-acceptor organic emitters with unique topology. These are investigated as emissive components in thermally activated delay fluorescent (TADF)/hyperfluorescent (HF) OLED devices, and hole-transporting layers (HTL) applied for more efficient throughput of Perovskite Solar Cells (PSCs). We have faced the challenge in constructing highly emissive organic materials by integrating donor-acceptor structure thoroughly fused and conjugated scaffold which bears, however, nonplanar geometry. We believe that implementation of such conceptually new, tailor-made organic materials would allow to holistically tune the desired optical properties such an efficient quantum yield, excited states energy difference, and bandgap energy.

Can you set this article in a wider context?

Seeking new organic emitters for TADF OLED devices has recently constituted an intensive field of research. Particularly, organic dyes with a small energy gap (ΔE_ST) which enable an efficient up-conversion process of triplet excitones are of high interest. The most common approach offered so far has relied on a use of rigid platforms decorated with twisted electron rich substituents to minimize HOMO-LUMO overlap which usually affects on ΔE_ST . We recently demonstrated first ambipolar and curved N-doped PAHs in which antiaromatic 7-memered ring led to the spatially separate HOMO-LUMO levels while curvature enabled one to minimize their overlap and achieve TADF emission (Angew. Chem. 2022, 61, e202202232) with PLQY up to 86% and EQE of 12%.

Building on that we envisaged the release of  the structural tension from our pristine N-PAHs would result in the system bearing V-shaped topology leading to a well decoupled donor-acceptor system. In this published paper, we showed the rational design and concise synthesis of a new set of V-shaped D-π-A organic emitters. “Releasing structural tension” from our parental architecture, we gained access to a novel class of dyes with V-shaped geometry, which was transparently proved by X-ray single crystal analysis. Furthermore, HOMO-LUMO levels were well separated leading to the remarkable decrease of ΔE_ST (<0.1eV for each derivative) and efficacious TADF process. For the best performing phenoxazine decorated dye, we found appreciable PLQY of 36% accompanied by a very good EQE of 13.6% which indeed stress the importance of the efficient up-conversion of triplet excitones due to the low ΔE_ST energy. These demonstrated results shed light on new structural paradigm that contributes strongly to the increase of TADF OLED effciency.

What do you hope your lab can achieve in the coming year?

We have currently aimed at developing a peripheral functionalization of our N-PAHs. Moreover, we have explored the synthetic methodologies toward curved nanographenes which are going to be brought to light this year.

Describe your journey to becoming an independent researcher.

After my PhD in the group of Prof. Marcel Mayor (University of Basel, KIT Karlsruhe), I returned to Poland (2017) where I spent a short period of time at the industry (Selvita). With this valuable experience in a hand, I subsequently moved to Warsaw (IOC PAS). Within next 1.5 year I had here tackled to the development of new anion receptors and catalytic methods for stereo-selective semi-hydrogenation of alkynes, working in a group of Prof. Janusz Jurczak and Karol Grela, respectively. Meantime (2018/2019) I successfully applied for my first independent research grant (within the frame of Sonata 14 competition) funded by National Centre of Science. Year after (2020) I received second grant, this time from the National Centre of Research and Development (Lider XI). Within the scope of my independent research I try to perform a unique approach to the synthesis of aromatic compounds with goal of reaching a specific functionality.

What is the best piece of advice you have ever been give?

Well, here I would come with two quotes. Namely, “treat other as you want to be treated” and “make people believe what you believe in”. Both help me on daily basis to gradually become a better leader.

Why did you choose to publish in ChemComm?

ChemComm is a journal with a long tradition and an excellent reputation in chemistry. As it is a so-called “general” type of journal, it is accessed by the broad society of researchers who often cross the borders of chemistry and physics. “Publish your results in a journal, you used to read”. This attitude of my former co-advisor Dr Michal Valášek, (KIT, Germany) which was transferred to my professional life and was a driving force to publish following manuscript in ChemComm.

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Marcin Lindner completed his PhD in 2016 at the University of Basel, Switzerland, under the guidance of Prof. Marcel Mayor. He defended a PhD dissertation entitled “Tailor-made tetraphenylmethanes : from surface decoartion to 3D organic polymers”. In 2017 he returned to Poland to work at Selvita as a Synthesis Specialist III. After this short adventure in industry he returned to academia (Institute of Organic Chemistry, Polish Academy of Science) to work with Prof. Janusz Jurczak (10/2017-01/2019) and Prof. Karol Grela (02-11/2019). Since 2019, has been employed as assistant professor and appointed a head of the Aromatic Functional Materials group at the IOC, PAS in Warsaw. Twitter: @lindner_marcin

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We are excited to share the success of Manabu Yamada’s first-time independent article in ChemComm; “Facile separation of cyclic aliphatic and aromatic vapors using crystalline thiacalixarene assemblies with preorganized channels” included in the full milestones collection. 

Read our interview with Manabu below.

What are the main areas of research in your lab and what motivated you to take this direction?

Our laboratory has two primary research themes. The first involves the development of adsorbents that use organic crystals based on macrocyclic compounds (calixarenes, thiacalixarenes, and cyclodextrins) to effectively separate small organic molecules. The second involves the development of extractants and adsorbents based on macrocyclic compounds and pincer ligands to effectively separate rare (precious) metals.

We were motivated to conduct this research for the following reasons: during my research on organic crystals, I became fascinated by the beauty of crystals, as well as their interesting properties, such as the selective incorporation of characteristic organic vapor components. During my research on rare metal separators, I found that I enjoyed designing extractants to recognize and separate specific metals.

Can you set this article in a wider context?

Cyclohexane and methylcyclohexane were synthesized via the hydrogenation of benzene and toluene, respectively. However, the unreacted aromatic material remains in the effluent stream of the reactor during this process. The effective separation of the cyclic aliphatic and aromatic compounds via conventional distillation is impossible, and separations based on the size and molecular volumes are challenging.

To exploit the differences in molecular sizes and spatial structures of cyclohexane and benzene or those of methylcyclohexane and toluene, macrocyclic compounds have been utilized to separate cyclic alkane/aromatic hydrocarbon vapor mixtures. However, the separation of benzene/cyclohexane and toluene/methylcyclohexane mixtures using one type of macrocyclic compound has not yet been achieved.

At this time, we found that the facile and efficient separation of both benzene/cyclohexane and toluene/methylcyclohexane mixtures can be achieved using one type of crystalline thiacalxarene assembly featuring preorganized channel-like adsorption sites, which possess the adsorption properties of cyclic aliphatics and aromatics and the different retention capacities of each adsorbed molecule.

What do you hope your lab can achieve in the coming year?

In the future, we will investigate the adsorption properties of polar organic molecules using crystalline thiacalixarene assemblies. In addition, we will attempt to develop novel organic crystals based on other macrocyclic compounds and evaluate their adsorption and separation properties for small organic molecules.

Describe your journey to becoming an independent researcher.

I decided to become a researcher when I was a Ph.D. student under Prof. Fumio Hamada at Akita University. I was fascinated by the inclusion phenomena of macrocyclic compounds and the beauty of macrocycle-based organic crystals. After graduation, I worked as a postdoctoral researcher at the Akita University Venture Business Laboratory in the field of supramolecular chemistry. I was then hired as a tenure-track assistant professor in the tenure-track program for young faculty members in the field of mineral resource research at Akita University, where I took on the challenge of a new research field: the development of extractants that can efficiently recover platinum group metals. Fortunately, with the support of my superiors, I became an independent researcher.

What is the best piece of advice you have ever been give?

I do not know if this is good advice for everyone, but I was once told, “the only privilege of a chemist is to be able to converse with compounds.” This is what I keep in mind as I continue my research. I believe this is the best advice I have ever received, as it has made me realize the importance of enjoying chemistry on a daily basis.

Why did you choose to publish in ChemComm?

ChemComm is a high-impact journal read by chemists across a wide range of fields. Additionally, it publishes research articles that are novel, urgent, and very compelling. These attributes are what motivated me to publish my article in ChemComm.

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Manabu Yamada completed his PhD at Akita University, Japan, under the guidance of Prof. Fumio Hamada, where he explored the crystal structures of metal complexes of macrocyclic compounds. He then spent approximately two years as a postdoctoral researcher at the Akita University Venture Business Laboratory, Japan. In 2012, he accepted a tenure-track assistant-professorship at Akita University, working on the development of new extractants for the recovery of rare metals from secondary resources. He was appointed principal investigator of this project in 2017. Since 2022, he has been an Associate Professor at Akita University, with a research focus on the development of extractants and sorbents for the effective and selective separation of metals and small organic compounds. Twitter: @Akita_Lab ResearchGate: https://www.researchgate.net/profile/Manabu-Yamada-2

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We are excited to share the success of Cameron Bentley’s first-time independent article in ChemComm; ‘Direct electrochemical identification of rare microscopic catalytic active sites‘ included in the full milestones collection. 

Read our interview with Cameron below.

What are the main areas of research in your lab and what motivated you to take this direction?

My groups research centres on green energy conversion and storage, specifically on developing a working understanding of the relationship between materials nanostructure and function (e.g., catalytic activity, stability, selectivity etc.). We have developed a suite of nanoscale electrochemistry (nanoelectrochemistry) techniques that provide a very different view of electrodes and electrochemical processes, allowing us to “see” catalytic active sites during operation, which we further relate to the materials underlying chemistry and structure to assign the fundamental structure-property relationship(s). We believe that accessing this information will accelerate materials discovery and further facilitate the rational design of “next-generation” materials with enhanced function, which are both critically important goals in the field of materials science.

Can you set this article in a wider context?

Nanostructured electrochemical interfaces are found in diverse applications ranging from electrocatalysis and energy storage to biomedical and environmental sensing. These functional materials, which possess chemical and structural heterogeneity on wide range of length scales, are usually characterised using “bulk” electrochemical techniques which provide limited information on—or worse, may even obscure—the nature of the underlying (catalytic) active sites. This work showcases a new approach, based on local voltammetric analysis with a scanning electrochemical droplet cell technique, in combination with a new data processing protocol (termed data binning and trinisation), to directly identify never-before-seen catalytic active sites on the basal plane of molybdenum disulfide (2H-MoS₂). The introduced approaches are generally applicable and understanding the nature of (sub)microscopic catalytic active sites, such as the nanoscale “electrocatalytic hotspots” identified herein, is crucial to guide the rational design of next-generation earth-abundant materials for renewable fuels production.

What do you hope your lab can achieve in the coming year?

We would like to expand our cutting-edge nanoelectrochemistry approaches (such as those introduced herein) to investigate the structure-activity-selectivity relationships associated with more complex electrochemical reactions (e.g., the electrochemical reduction of CO₂) and electrode materials (e.g., single nanoparticles).

Describe your journey to becoming an independent researcher.

My BSc was a co-major in biochemistry and chemistry at Swinburne University of Technology, Australia. I remember being quite torn between these two important and interesting areas, until I undertook a summer research project at CSIRO (Australia), looking at corrosion (and corrosion protection) in carbon capture and storage pilot plants. This ignited my passion for electrochemistry and sustainable energy technologies, leading me to take up a Swinburne/CSIRO co-supervised Honours project on positive electrode current collector corrosion in lithium-ion batteries. I really embraced the research during my Honours year, and a PhD seemed like a natural choice, which I carried out at Monash University on the topic of “Electrode reaction and mass-transport mechanisms associated with the I⁻/I₂ and H⁺/H₂ redox couples in ionic liquid media”, supervised by Profs Alan Bond and Jie Zhang.

After graduating at the end of 2015, I moved abroad and took up a position at the University of Warwick, UK, working with Prof Patrick Unwin in the Department of Chemistry. Over a period of 4.5 years, I was funded by a succession of Fellowships (Endeavour, Marie-Curie and Ramsay), which granted me a great degree of academic independence, allowing me to collaborate widely and take my research in significant new directions within this fresh environment, notably towards the emerging areas of nanoelectrochemistry and single-entity electrochemistry.

It was on these topics that I prepared my successful DECRA Fellowship application, which I took up at Monash University in November 2020. This is my first independent position and I currently lead a small group of 4 PhD students (2 as primary supervisor, 2 as secondary) and 2 Honours students within the School of Chemistry. I am very happy to be back in my home country and believe that we (my group and I) are well-positioned to lead the rapidly emerging nanoelectrochemistry field, as it continues to expand.

What is the best piece of advice you have ever been give?

The best advice I have received is probably to trust my feelings of intuition (“trust your gut”) with respect to research (and people!). Of course, there is a fine line between being assertive with our ideas and being stubborn or hard-headed, but I think it is an important lesson for early career researchers trying to “find their niche”.

Why did you choose to publish in ChemComm?

I am a regular reader of ChemComm and believe that is an excellent journal. The time commitment for reading is relatively low, while the potential rewards are high, as ChemComm tends to publish very cutting-edge research in my areas of interest (e.g., electrochemistry, materials science and nanoscience).

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Dr Cameron L. Bentley obtained his PhD from Monash University, Australia (2012 – 2015) and worked as a (Senior) Research Fellow at the University of Warwick, UK (2016 – 2020), supported by subsequent Endeavour (Australia), Marie Skłodowska-Curie (EU) and Ramsay Memorial (UK) Fellowships. Currently, he is an ARC DECRA Fellow at Monash University and his research centres on combining cutting-edge electrochemical imaging techniques (a unique capability that is only available in his laboratory, within Australia) with co-located microscopy/spectroscopy to solve contemporary structure−function problems in electromaterials science. Cameron has published >50 peer-reviewed articles and is the recent recipient of the Early Career Analytical Electrochemistry Prize of ISE Division 1 (International Society of Electrochemistry). Twitter: @CL_Bentley

Explore more ChemComm Milestones news and updates on our Twitter: @ChemCommun

We are excited to share the success of Yuanting Su’s first-time independent article in ChemComm; ‘Crystalline radical cations of bis-BN-based analogues of Thiele’s hydrocarbon‘ included in the full milestones collection. 

Read our interview with Yuanting below.

What are the main areas of research in your lab and what motivated you to take this direction?

The main interests of our group are focused on the isolation, characterizations, and reactivity of novel main group species, including geometrically constrained compounds and di(poly)radicals. Recently, most of the stoichiometric and catalytic small molecule activations involve transition metal complexes. Additionally, organic radicals have potential applications in functional materials. We believe that main group species with suitable electronic and steric effects could also solve these problems and have their advantages.

Can you set this article in a wider context?

Thiele’s hydrocarbon, the first isolable organic diradicaloid reported by Thiele in 1904, has been widely used as a calculated model to investigate the interaction between two unpaired electrons. However, itself and its radical cation are highly reactive, preventing further investigation and practical application. Despite various analogues of Thiele’s hydrocarbon have been isolated, structurally characterized radical species derived from them are still limited and radical cations of bis-BN-based analogues have not been reported. In this paper, we demonstrate that air-stable bis-BN-based analogues of Thiele’s hydrocarbon have been facilely synthesized by one-pot reaction of bromoborane (HCDippN)₂BBr with KC₈ in the presence of half an equivalent of pyrazine or quinoxaline in toluene. Moreover, one-electron oxidation with AgSbF₆ leads to their radical cations, which could be isolated as crystalline solids. The unpaired electron is greatly delocalized over the central linkers. Therefore, reduction of the halogenated borane in the presence of pyrazine and derivatives is a straightforward way to achieve BN-based analogues of Thiele’s hydrocarbon with multiple stable redox states. This strategy may allow access to novel open-shell diradicaloids or polyradicals.

What do you hope your lab can achieve in the coming year?

Make progress in the construction of novel main group species for small molecule activation and functional materials.

Describe your journey to becoming an independent researcher.

When I was an undergraduate, my research experience with Prof. Suna Wang at Liaocheng University inspired me to pursue an academic research career. After graduation from the group of Prof. Xiao-Juan Yang and Prof. Biao Wu at Lanzhou Institute of Chemical Physics, where I learned a lot of knowledge and techniques on organometallics chemistry and characterizations, I joined the group of Prof. Xinping Wang at Nanjing University and studied the isolation of main group element radicals. Then, I was offered a Research Fellow position in Prof. Rei Kinjo’s group at Nanyang Technological University, where I expanded my research area into the small molecule activations by novel main group element species. I was fortunate to meet such kind and professional chemists, whose strong support helped me to become an independent researcher.

What is the best piece of advice you have ever been give?

You can neither rewrite your past nor predict your future. The best thing you can do is holding the present.

Why did you choose to publish in ChemComm?

ChemComm combines the traits of wide readership, rapid publishing, and high quality.

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Yuanting Su received his BSc Degree from Liaocheng University in 2009. Then, he moved to Lanzhou Institute of Chemical Physics, CAS and obtained his MSc Degree in 2012 under the guidance of Prof. Xiao-Juan Yang and Prof. Biao Wu. He earned his PhD in 2015 from Nanjing University under the supervision of Prof. Xinping Wang, studying the isolation of main group element radical species. He stayed as a Research Fellow at Prof. Rei Kinjo’s group at Nanyang Technological University (Sep. 2015 to Sep. 2019), Singapore, focusing on small molecule activation by main group element compounds. In Nov. 2019, he joined the College of Chemistry, Chemical Engineering and Materials Science, Soochow University as an Associate Professor. His current research interests are new main group species and their applications in small molecule activation and functional materials.

Explore more ChemComm Milestones news and updates on our Twitter: @ChemCommun

We are excited to share the success of Bin Wang’s first-time independent article in ChemComm; ‘tert-Butyl nitrite triggered radical cascade reaction for synthesizing isoxazoles by a one-pot multicomponent strategy‘ included in the full milestones collection. 

Read our interview with Bin below.

What are the main areas of research in your lab and what motivated you to take this direction?

Our laboratory currently focuses on the glycosylation reaction of nitrogen-containing heterocycles to acquire drug-like molecules. Many bioactive components in traditional Chinese medicine (TCM) contain glycosyl groups, which increase the water solubility of these molecules. According to the decoction method used in TCM, these compounds are more likely to be the active components of TCM. Additionally, in the development of synthetic drugs, glycosyl groups are often introduced into poorly soluble lead compounds to increase their hydrophilicity, improve the bioavailability of the target drugs, and finally increase the potential druggability.

Can you set this article in a wider context?

As early as 1888, the synthesis of isoxazole derivatives was first documented through the condensation/cyclization reaction of 1,3-dicarbonyl compounds with hydroxylamine by Claisen. Subsequently, two typical strategies for the synthesis of isoxazoles involve 1,3-dipolar cycloaddition of nitrile oxides; and alkynes and cyclo-isomerization of alkynyl ketoxime compounds.

In this article, we describe a novel and efficient multicomponent cascade reaction that involves sequential acylation/oximation/annulation processes in the presence of alkenes, aldehydes, TBN, and H₂O, providing access to diversely disubstituted isoxazoles in one-pot. This strategy features H₂O as a rare oxygen source of the isoxazole ring, commercially available substrates, and the construction of diverse new bonds in a single pot, which is distinct from already reported studies. These characteristics meet exactly the needs of environmental protection.

Additionally, we applied the established method to provide 32 isoxazole derivatives, and antioxidant experiments showed that these compounds have positive radical scavenging capacity, especially isoxazole 4al reaching 60% scavenging power at a concentration of 2 μmol/mL, suggesting that these molecules could be utilized as lead compounds for anti-aging drugs.

What do you hope your lab can achieve in the coming year?

In the next year, we will focus on carbohydrate chemistry, especially around the glycosylation reaction to achieve the synthesis of antioxidant and/or anti-inflammatory substances.

Describe your journey to becoming an independent researcher.

After completing my master’s degree in physical chemistry (Hunan University, China), I pursued a Ph.D. in organic chemistry for synthesis methodology to explore the functionalization of alkenes or alkynes in the aqueous phase. (University of Science and Technology of China, China), followed by an Associate Professor position focused on the synthesis of nitrogen-containing heterocycles to acquire drug-like molecules (Anhui University of Chinese Medicine, China). Subsequently, I accepted a visiting scholar position from the Georg-August-University of Goettingen, working on glycosylation reactions. Currently, my research group consists of 1 Ph.D. student, 7 masters, and 9 undergraduates. Inspired by the experiences described above and with an interest in exploring TCMs, I begin my independent career to navigate new fields between nitrogen-containing heterocycles and carbohydrate chemistry.

What is the best piece of advice you have ever been give?

“Do important and useful chemistry”. Innovation and practicality could go hand in hand. The application of chemical synthesis to solve problems in social life is more in agreement with the needs of human development, for instance, the total synthesis of natural products, synthesizing drug molecules, etc. Therefore, in the course of my academic research, this word has been guiding and inspiring me.

Why did you choose to publish in ChemComm?

ChemComm is a highly readable journal. The novelty of the published paper and the rapid publication process attracted me deeply to publish my first research article.

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Dr. Bin Wang completed his Ph.D. at the University of Science and Technology of China working with Prof. Zhiyong Wang, where he explored the functionalization of alkenes or alkynes in the aqueous phase. In 2021, he accepted a visiting scholar position in the group of Prof. Dr. Lutz Ackermann at the Georg-August University of Goettingen, working on synthetic methodology. Currently, he holds the position of Associate Professor position at the Key Laboratory of Xin’an Medicine of the Ministry of Education of the Anhui University of Chinese Medicine. His research is focused on the application of glycosylation to acquire drug-like molecules.

Explore more ChemComm Milestones news and updates on our Twitter: @ChemCommun

We are excited to share the success of Philip Norcott’s first-time independent article in ChemComm; ‘Current electrochemical approaches to selective deuteration‘ included in the full milestones collection. 

Read our interview with Philip

What are the main areas of research in your lab and what motivated you to take this direction?

I am interested in finding simple ways to synthesise new molecules that are designed for particular purposes or show unusual chemical properties. One of these synthetic methods is electrochemistry – using electrical potential to drive oxidation or reduction reactions instead of chemical reagents. An outcome of synthesis where I’m focused is in field of NMR hyperpolarisation, which is a technique to increase signal levels and detect trace intermediates or other compounds. In NMR studies, deuteration can be very important, but making deceptively simple deuterated molecules comes with its own synthetic challenges. 

Can you set this article in a wider context?

Electrosynthesis is becoming far more accessible as a synthetic technique, even for self-described ‘non-experts.’ Part of the attraction of this method is the potential to produce valuable molecules in a more efficient, safer, milder, and controllable way. In the context of deuteration, instead of using deuterium gas under forcing conditions or very expensive analogues of deuterated synthetic reagents, electrochemistry opens up access to a wide range of reactive intermediates which can readily acquire deuterium from simple, cheap sources. Often, and ideally, this can simply be D2O. This article identifies the current strategies and substrates able to undergo selective deuteration in this way, and suggests areas where the burgeoning interest in electrochemistry currently in the synthetic community can play a part to develop further labelling processes.

What do you hope your lab can achieve in the coming year?

I hope to be able to demonstrate reactions which display interesting chemoselectivity enabled by electrochemistry, and a new process for hyperpolarising organic compounds.

Describe your journey to becoming an independent researcher.

I did my PhD in organic chemistry at the University of Sydney, Australia, then went on to do two postdocs at the University of York, United Kingdom, then the Australian National University in Canberra, Australia. Working on very different projects in each provided me with an opportunity to try out some new areas of chemistry, and these topics ended up laying the groundwork for my current research interests. I was awarded an Australian Research Council Discovery Early Career Researcher Award (ARC DECRA) in 2021 to begin my independent research career.

What is the best piece of advice you have ever been give?

When reading articles or attending conference presentations and seminars, try to identify at least one part you don’t understand: a reaction, chemical reagent, word or concept that’s new to you, and take it as a chance to broaden your knowledge.

Why did you choose to publish in ChemComm?

ChemComm is renowned for quality and timely research in all of chemistry, and so appeals to a wide audience in terms of readers’ fields, backgrounds and interests; by submitting to ChemComm I hoped to engage as broad an audience as possible with my article topic.

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Philip L. Norcott completed his PhD at the University of Sydney, Australia, in 2016 with a focus on organic synthesis using catalysis in aqueous emulsions. He then spent two years as a postdoctoral researcher at the University of York, United Kingdom, at the Centre for Hyperpolarisation in Magnetic Resonance, with an emphasis on the synthesis of isotopically labelled materials for NMR applications. Following this he returned to Australia as a postdoctoral researcher at the Australian National University in Canberra, investigating the application of electrochemistry and electrostatic effects on organic chemical reactivity. He was awarded an Australian Research Council Discovery Early Career Researcher Award (ARC DECRA) in 2021 to launch a research program which is focused on synthetic methods to improve NMR hyperpolarisation through activation of para-hydrogen, and the synthesis of isotopically labelled molecules enabled by electrochemistry.

Explore more ChemComm Milestones news and updates on our Twitter: @ChemCommun