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13 May 2025 | Story Dr Francois Smith | Photo Supplied
Francois Smith
Dr Francois Smith, Head of Department: Afrikaans and Dutch; German and French, University of the Free State.

Opinion article by Dr Francois Smith, Head of Department: Afrikaans and Dutch; German and French, University of the Free State 




On 8 May 1925, the writer CJ Langenhoven introduced a bill in the parliament of the then Union of South Africa that led to Afrikaans being recognised as one of the country’s official languages, alongside English. It is this historic moment that marks the centenary being celebrated today. However, the language itself predates its official status by centuries. The roots of Afrikaans can be traced back to the 1500s, during the first interactions between European sailors and the indigenous Khoi-Khoi people. What makes the origin of Afrikaans particularly significant is that it developed on African soil, shaped by the contact and exchange between European colonists, enslaved people brought from Africa and Asia, and the local Khoi population. Afrikaans is, therefore, a uniquely South African creation – a rich tapestry of diverse influences. It is this diversity, this cultural and linguistic fusion, that is truly worth celebrating.

It is evident that Afrikaans did not begin as a fully developed written language. Some of the earliest recorded instances of written Afrikaans date back to the 1830s, when Muslim imams used Arabic script to communicate with their pupils in Afrikaans in religious schools. A more formal effort to establish Afrikaans as a written language emerged in 1875 with the founding of the Genootskap van Regte Afrikaners (Society for Real Afrikaners), which played a pivotal role in standardising and promoting written Afrikaans.

 

The Dutch language

During the Anglo-Boer War (1899-1902), the two Boer republics – the Zuid-Afrikaansche Republiek and the Orange Free State – were defeated by the British Empire. In the aftermath of this conflict, efforts were made to unite the two British colonies, the Cape Colony and Natal, with the former Boer republics into a single political entity. This led to the National Convention, where representatives negotiated the constitution for what would become the Union of South Africa. Given the dominant position of Britain, the prevailing influence of English-speaking authorities in the Cape and Natal, and the Anglophile stance of many British leaders, it would have been reasonable to expect the new Union to adopt English as its sole official language. However, due to the tireless advocacy of figures such as former President MT Steyn and General JBM Hertzog, the resulting South Africa Act of 1909 – passed by the British Parliament – stipulated that ‘the Dutch language’ would share official status with English in the Union. This was a significant victory for the preservation of Dutch (and later, Afrikaans) in the political and administrative life of the country.

The ‘Dutch’ used in South Africa at the time, particularly among ordinary people, was far from uniform and bore little resemblance to the Standard Dutch of the Netherlands. Very few South Africans were proficient in writing formal Dutch. Meanwhile, Afrikaans had only just begun the process of standardisation in the years following the formation of the Union. In many cases – especially in written contexts – the language appeared as a hybrid of spoken Afrikaans and formal Dutch, or what was loosely referred to as ‘Hollands’. Recognising this linguistic shift, figures such as CJ Langenhoven began advocating for Afrikaans to be recognised as a full-fledged language, particularly as a standardised orthography began to take shape. Langenhoven and his contemporaries likely understood that the continued use of Standard Dutch in South Africa was untenable. Thanks to their dedication, a joint session of the Volksraad and the Senate was held on 8 May 1925, during which Act No. 8 of 1925 was passed. This legislation clarified that the term ‘Hollands’, as used in South African legal and governmental contexts, also encompassed Afrikaans – marking a pivotal moment in the formal recognition of the language.

A necessary consequence of the 1925 legislation was that Afrikaans, now recognised as an official language, had to rapidly develop in areas such as orthography, terminology, and grammatical consistency. Subsequent constitutions – specifically those of 1961 and 1983 – further entrenched the status of Afrikaans by extending the use of both official languages to the provincial level. Because Afrikaans was now required to operate on equal footing with a global language such as English across all spheres of government, the development of a standardised variety became essential. This standard form enabled the state not only to fulfil its constitutional obligations but also to communicate effectively with a significant portion of the population.

 

Most South Africans not first-language English speakers

Today, South Africa officially recognises twelve languages, following the recent addition of South African Sign Language. While earlier constitutions explicitly outlined the functions and domains of the official languages, the 1996 Constitution is notably more open-ended. It mandates that the state must take "practical and effective measures" to elevate the status and promote the use of all official languages, and that they must be treated equitably and enjoy equal status. However, these provisions are vague and lack clear implementation guidelines or enforceable obligations. Unlike earlier frameworks that prescribed specific uses and provided mechanisms for accountability, the current constitutional language leaves much to interpretation. As a result, and in the absence of meaningful incentives or enforcement, English has become the de facto sole language of government, undermining the ideal of multilingualism and linguistic fairness envisioned in the Constitution.

The reality that most South Africans are not first-language English speakers means that a significant portion of the population has limited access to essential information, which in turn restricts their ability to fully participate in the country’s economic, educational, and social opportunities. This linguistic barrier perpetuates inequality and undermines the goals of inclusive development. One of the pressing challenges facing the current government is, therefore, strikingly similar to that which confronted the Union government a century ago with respect to Afrikaans: the need to actively develop all of South Africa’s official languages. Only through dedicated investment in their growth and functional application can these languages truly operate as instruments of democracy, equality, and social justice.

The development of human potential and the advancement of science and technology are among the foremost priorities of the current South African government. However, these goals are unattainable without language – spoken or written – as the foundation for communication. More specifically, the absence of well-developed scientific languages renders scientific and technical communication ineffective. This reality places increasing demands on South Africa’s official languages, requiring the creation and maintenance of robust, multilingual terminology across a wide range of disciplines. Ensuring that all languages are equipped to handle specialised knowledge is essential for equitable access to education, innovation, and national development.

Due to the dominance of English, South Africa’s other official languages face significant challenges in developing technical vocabulary and keeping pace with the demands of a rapidly evolving modern world. One notable achievement in Afrikaans is the Woordeboek van die Afrikaanse Taal (WAT), a comprehensive dictionary project that began in 1926 and, despite minimal state support, continues to progress toward its final volume, expected in 2028. This kind of initiative should serve as a model for all of South Africa’s official languages. Scientific and technological knowledge must be made accessible in every language, ensuring they are equipped to function effectively across all levels of society. When a language loses functional domains, its practical value diminishes, its cultural sphere contracts, and its speakers are more likely to shift towards a language perceived as more useful.

News Archive

Researcher part of project aimed at producing third-generation biofuels from microalgae in Germany
2016-05-09

Description: Novagreen bioreactor  Tags: Novagreen bioreactor

Some of the researchers and technicians among the tubes of the Novagreen bioreactor (Prof Grobbelaar on left)

A researcher from the University of the Free State (UFS), Prof Johan Grobbelaar, was invited to join a group of scientists recently at the Institute for Bio- and Geo-Sciences of the Research Centre Jülich, in Germany, where microalgae are used for lipid (oil) production, and then converted to kerosene for the aviation industry.

The project is probably the first of its kind to address bio-fuel production from microalgae on such a large scale.  

“The potential of algae as a fuel source is undisputed, because it was these photoautotrophic micro-organisms that were fixing sunlight energy into lipids for millions of years, generating the petroleum reserves that modern human civilisation uses today.  However, these reserves are finite, so the challenge is marrying biology with technology to produce economically-competitive fuels without harming the environment and compromising our food security.  The fundamental ability that microalgae have to produce energy-rich biomass from CO2, nutrients, and sunlight through photosynthesis for biofuels, is commonly referred to as the Third-Generation Biofuels (3G),” said Prof Grobbelaar.

The key compounds used for bio-diesel and kerosene production are the lipids and, more particularly, the triacylglyserols commonly referred to as TAGs.  These lipids, once extracted, need to be trans-esterified for biodiesel, while a further “cracking” step is required to produce kerosene.  Microalgae can store energy as lipids and/or carbohydrates. However, for biofuels, microalgae with high TAG contents are required.  A number of such algae have been isolated, and lipid contents of up to 60% have been achieved.

According to Prof Grobbelaar, the challenge is large-scale, high-volume production, since it is easy to manipulate growth conditions in the laboratory for experimental purposes.  

The AUFWIND project (AUFWIND, a German term for up-current, or new impetus) in Germany consists of three different commercially-available photobioreactor types, which are being compared for lipid production.

Description: Lipid rich chlorella Tags: Lipid rich chlorella

Manipulated Chlorella with high lipid contents (yellow) in the Novagreen bioreactor

The photobioreactors each occupies 500 m2 of land surface area, are situated next to one another, and can be monitored continuously.  The three systems are from Novagreen, IGV, and Phytolutions.  The Novagreen photobioreactor is housed in a glass house, and consist of interconnected vertical plastic tubes roughly 150 mm in diameter. The Phytolutions system is outdoors, and consists of curtains of vertical plastic tubes with a diameter of about 90 mm.  The most ambitious photobioreactor is from IGV, and consists of horizontally-layered nets housed in a plastic growth hall, where the algae are sprayed over the nets, and allowed to grow while dripping from one net to the next.

Prof Grobbelaar’s main task was to manipulate growth conditions in such a way that the microalgae converted their stored energy into lipids, and to establish protocols to run the various photobioreactors. This was accomplished in just over two months of intensive experimentation, and included modifications to the designs of the photobioreactors, the microalgal strain selection, and the replacement of the nutrient broth with a so-called balanced one.

Prof Grobbelaar has no illusions regarding the economic feasibility of the project.  However, with continued research, optimisation, and utilisation of waste resources, it is highly likely that the first long-haul flights using microalgal-derived kerosene will be possible in the not-too-distant future.

Prof Grobbelaar from the Department of Plant Sciences, although partly retired, still serves on the editorial boards of several journals. He is also involved with the examining of PhDs, many of them from abroad.  In addition, he assisted the Technology Innovation Agency of South Africa in the formulation of an algae-biotechnology and training centre.  “The chances are good that such a centre will be established in Upington, in the Northern Cape,” Prof Grobbelaar said.

 

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