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04 December 2023 | Story LUNGA LUTHULI | Photo SUPPLIED
Milton Mogotsi
Charting unexplored territories: Milton Mogotsi, UFS PhD student, clinches victory in National 3MT Competition, unravelling infant enteric virome complexities, poised to revolutionise virology.

Milton Mogotsi, a PhD student at the University of the Free State (UFS), has secured a remarkable victory in the esteemed National 3 Minute Thesis competition (3MT), rising above formidable competition nationwide. This achievement follows Mogotsi’s earlier successes at faculty and institutional levels, where his presentations on the enteric virome of infants in the Free State stood out for their brilliance and significance.

The annual competition serves as a platform for postgraduate students to enhance their academic, presentation, and research communication skills by succinctly explaining their research to an intelligent but non-specialist audience within a concise 3-minute timeframe.

Reflecting on his initial reaction to the news, Mogotsi expressed a mix of shock and excitement. “I was genuinely shocked and excited when declared the winner,” he shared. This victory marked a significant milestone for Mogotsi, as a first-time participant, showcasing the excellence of both the UFS and the Faculty of Health Sciences.

Exploring uncharted territories

Mogotsi’s groundbreaking research delves into the unexplored domain of the enteric virome in infants, a subject inspired by his earlier master’s study in microbiology. “I was first introduced to this research during my master’s degree, and compelling findings motivated me to pursue further studies,” explained Mogotsi. Guided by his mentor, Prof Martin Nyaga, Mogotsi's doctoral journey unfolded into a profound exploration of the complexities of viruses colonising infants' guts and their implications on infant health.

Sharing key findings, Mogotsi highlighted that, despite detecting several disease-causing viruses in infants’ guts, none exhibited clinical symptoms. This emphasises the role of immunity and protective measures like breastfeeding. He also identified plant viruses, potentially transmitted through the environment or food sources, raising intriguing questions about infants’ exposure.

His pioneering use of viral metagenomics in unravelling the enteric virome’s complexity underscored its potential in understanding human health and disease. “Viral metagenomics has become a fundamental tool, shedding light on the composition of the infant’s enteric virome,” explained Mogotsi. 

Navigating challenges

Despite challenges, including disruptions due to COVID-19 and participant withdrawals, Mogotsi persevered, underscoring the importance of a longitudinal approach in comprehending the infant virome’s development over time. His success in the competition not only boosted his confidence but also expanded his networks, providing invaluable opportunities to present his findings internationally.

Mogotsi's advice to aspiring researchers mirrors his own journey: clarity of purpose, resilience in the face of challenges, fostering mentor relationships, and making the most of available resources. His groundbreaking work is poised to influence policy, guide vaccine strategies, and reshape our understanding of infant health.

As Mogotsi approaches the completion of his PhD, the future holds promising horizons for this trailblazing researcher, poised to leave an indelible mark on the world of virology and infant health.

News Archive

Prof Tredoux turns theories regarding the formation of metals on its head
2013-09-17

 

Prof Marian Tredoux
17 September 2013

The latest research conducted by Prof Marian Tredoux of the Department of Geology, in collaboration with her research assistant Bianca Kennedy and their colleagues in Germany, placed established theories regarding how minerals of the platinum-group of elements are formed, under close scrutiny.

The article on this research of which Prof Tredoux is a co-author – ‘Noble metal nanoclusters and nanoparticles precede mineral formation in magmatic sulphide melts’ – was published in Nature Communications on 6 September 2013. It is an online journal for research of the highest quality in the fields of biological, physical and chemical sciences.

This study found that atoms of platinum and arsenic create nanoclusters, long before the mineral sperrylite can crystallise. Thus, the platinum does not occur as a primary sulphur compound. The research was conducted at the Steinmann Institute of the University of Bonn, Germany, as well as here in Bloemfontein.

Monetary support from Inkaba yeAfrica – a German-South African multidisciplinary and intercultural Earth Science collaborative of the National Research Foundation (NRF) – made this research possible. Studies are now also being conducted on other metals in the precious metal group, specifically palladium, rhodium and ruthenium.

The discovery of the nanoclusters and the combination with arsenic can have far-reaching consequences for the platinum mine industry, if it can be utilised to recover a greater amount of platinum ore and therefore less wastage ending up in mine dumps. This will signify optimal mining of a scarce and valuable metal, one of South Africa’s most important export products.

For Prof Tredoux, the research results also prove thoughts she already had some twenty years ago around the forming of platinum minerals. “Researchers laughed in my face, but the evidence had to wait for the development of technology to prove it.” Young researchers were very excited at recent congresses about the findings, since the new models can bring new insights.

“Chemistry researchers have been talking about platinum element clusters in watery environments for quite a while, but it was thought that these would not appear in magmas (molten rock) due to the high temperatures (>1 000 degrees celsius).”

Prof Tredoux has already delivered lectures at congresses in Scotland, Hungary, Sweden and Italy on this research.

Read the article at: http://www.nature.com/ncomms/2013/130906/ncomms3405/full/ncomms3405.html

 

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