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16 July 2021 | Story Leonie Bolleurs | Photo Supplied
According to Prof Gerhard Bosman (bottom left), the biggest advantage of the COIL exchange for Architecture students was their cultural and online collaboration development while addressing urban diversity, multiplicity, and complexity in the built environment. During an online engagement between academics, were from the left: Prof Mark DeBoer and Prof Chiara De Santi; and bottom, right: Prof Carlo Citter.

In South Africa, student exchange programmes – especially at undergraduate level – remain extremely limited. The national Policy Framework for Internationalisation of Higher Education in South Africa, however, makes internationalisation of the curriculum mandatory and directs that it ‘must not negate curriculum transformation imperatives which higher education institutions in South Africa have an obligation to fulfil'.

The University of the Free State (UFS), through its Office for International Affairs, coordinates the iKudu project, which seeks to transform curricula through internationalisation and virtual exchanges. iKudu, a Capacity Building for Higher Education (CBHE) project, is funded by the European Union’s Erasmus+ programme with EUR999 881 (approximately R20 million) and is implemented over a three-year period. Partner universities in the project are the South African Central University of Technology, Durban University of Technology, University of Limpopo, and University of Venda, with the University of Antwerp, Amsterdam University of Applied Sciences, The Hague University of Applied Sciences, Coventry University, and the University of Siena the European partners in the project.

The dream

According to Cornelius Hagenmeier, Director of the UFS Office for International Affairs, at least 50 academics and 5 250 students from South Africa and Europe will participate in the project through the collaborative online international learning (COIL) exchange model. Academics are receiving training on accredited courses in a virtual setting where the classrooms (each located in a different country or cultural setting) of two or more higher education institutions are linked, working with colleagues from partner universities to implement COIL virtual exchanges for the benefit of their students. 

He says: “Students with different cultural and geographical perspectives and experiences have the opportunity to learn from each other through cross-cultural dialogue, bringing a global dimension to the course content. Apart from developing the intercultural competence, technological skills, and the ability to work in groups, students also enhance their employability.”

Another major advantage of this model is that it gives effect to the South African Policy Framework by contributing to internationalisation at home through purposeful integration of international and intercultural dimensions into the formal curriculum. 

Hagenmeier believes that, besides a transformed curriculum at all partner universities, this process will also influence policy development at national and regional level.  

The opportunity

BArchHons students from the History of Urban Settlement module in the UFS Department of Architecture are but one example of a group of students who benefited from the exchange programme. UFS associate professor and researcher in Earth Architecture, Prof Gerhard Bosman, collaborated with academics from Italy, Japan, and the USA to engage with 85 students across four continents. 

From the University of Siena, Italy, Prof Carlo Citter, an associate professor in Medieval Archaeology, participated in the programme. He was joined by Prof Mark deBoer, a lecturer from the English for Academic Purposes (EAP) programme at the Akita University in Japan, and Prof Chiara De Santi, an assistant professor of Modern Languages, teaching film and cultural courses in English and Italian at the Farmingdale State College in the USA.

Prof Bosman says the COIL exchange programme, which started on 12 April 2021, was executed in three parts. He shares his account of the nine-week journey: “After students introduced themselves on Padlet, they were divided into twelve teams to collaborate in groups of seven to eight students (while creating a digital presence on Google Drive) to discuss, explore, and reflect on the urban environment and the portrayal of society during war/the aftermath of a war as depicted in a selected main steam film. Six weeks later, the groups had to submit final video and slide presentations on these topics. In the last part of the exchange programme – where students benefited from the perspectives of academics in four different cultures – a group and individual assessment reflecting the course discipline of the four student groups had to be accommodated. 

Overcoming challenges

The process unfortunately also had its challenges. Due to the time difference at most of the institutions, students found it difficult to meet. They also had to overcome the language differences, since not all students at the four institutions were English first-language speakers. However, the use of Google Meet (an online tool) with its English caption function helped individuals to follow the text from English voices.

As academics and students worked through the challenges, Prof Bosman confirmed that the COIL exchange programme has significant advantages. He states that the biggest advantage of the COIL exchange for Architecture students was their cultural and online collaboration development while addressing urban diversity, multiplicity, and complexity in the built environment. 

A follow-up COIL exchange between the four new partner universities in 2022 is well underway in the development and planning phases.

News Archive

Research by experts published in Nature
2011-06-02

 
The members of the research group are, from the left, front: Christelle van Rooyen, Mariana Erasmus, Prof. Esta van Heerden; back: Armand Bester and Prof. Derek Litthauer.
Photo: Gerhard Louw

A  research article on the work by a team of experts at our university, under the leadership of Prof. Esta van Heerden, and counterparts in Belgium and the USA has been published in the distinguished academic journal Nature today (Thursday, 2 June 2011).

The article – Nematoda from the terrestrial deep subsurface of South Africa – sheds more light on life in the form of a small worm living under extreme conditions in deep hot mines. It was discovered 1,3 km under the surface of the earth in the Beatrix Goldmine close to Welkom and is the first multi-cellular organism that was found so far beneath the surface of the earth. The worm (nematode) was found in between a rock face that is between 3 000 and 12 000 years old.

The research can shed some new light on the possibility of life on other planets, previously considered impossible under extreme conditions. It also expands the possibilities into new areas where new organisms may be found.

These small invertebrates live in terrestrial soil subjected to stress almost for 24 hours They live through sunshine, rain, scorching temperatures and freezing conditions. Through time they developed a means to cope with harsh conditions. Terrestrial nematodes (roundworms, not to be confused or related to earthworms) are among those very tough small invertebrates that deal with those conditions everywhere. After insects they are the most dominant multi-cellular (metazoan) species on the planet having a general size of 0,5 to 1 mm and are among the oldest metazoans on the planet, Nature says in a statement on the article.

They inhabit nearly every imaginable habitat form the deep seas to the acid in pitcher . Some nematodes simply eat bacteria and these are the ones we study here. Terrestrial nematodes have developed a survival stage that can take them through hard times (absence of food, extreme temperatures, too little oxygen, crowding, and more).

At the head of the research was Prof. Gaetan Borgonie of the Ghent University in Belgium and a world leader in the discipline of nematode research. He was brought into contact with the South African research leader, Prof. Esta van Heerden, who set up a cooperation agreement with the University of Ghent and Prof. Borgonie. Prof. Van Heerden manages the Extreme Biochemistry group at the UFS and the research was funded by several research grants.

The search for worms began in earnest in 2007, but it was soon clear that the sampling strategy was insufficient. A massive sampling campaign in 2008-2009 in several mines led to the discovery of several nematodes and the new nematode species Halicephalobus mephisto. It is named after the legend of Faust where the devil, also known as the lord of the underworld is called Mephistopheles.

Nature says special filters had to be designed and installed on various boreholes. Unfortunately, there is no easy way of finding a magic formula and designs had to be adapted by trial and error; improving existing designs all the time. The work of the UFS Mechanical Workshop, which manufactured, adapted and helped design it, was crucial in this respect. Filters were left on the holes for varying periods, sometimes for a few hours and sometimes for months. Prof. Derek Litthauer from the UFS played a big role in sampling, filter designs and coming up with ideas for names for the new nematode with Prof. Borgonie.

Research showed that the nematodes can live in the deep for up to 12 000 years. Three students – Armand Bester, Mariana Erasmus and Christelle van Rooyen from the UFS – did the work on this.

The importance of multi-cellular animals living in the ultra-deep subsurface is twofold: The nematodes graze on the existing bacterial population and influence their turnover. Secondly, if more complex multi-cellular organisms can survive in the deep subsurface on earth, this may be good news when looking for life on other planets where the surface is considered too inhospitable (e.g. Mars). Complex life forms can be found in ecosystems previously thought to be uninhabitable. Nature says this expands the possibilities into new areas where new organisms may be discovered.

Future research will focus on selective boreholes to look for more metazoans, so that a better idea of the complexity of the ecosystems there can be obtained. It will also look for metazoans in the deep subsurface on other continents to determine similarities and differences.

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