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05 June 2019 | Story Leonie Bolleurs | Photo Leonie Bolleurs
Lucas Erasmus and Prof Hendrik Swart
Lucas Erasmus and Prof Hendrik Swart (right) are working on a joint project with Ghent University to find an attractive solution to address the energy demands of buildings, electric motor vehicles, and mobile electronics.

With a constant increase in the price of electricity, any innovation to replace this necessity in our daily lives is welcome. 

The University of the Free State (UFS), whose vision is supported by an element of innovation, welcomes the recent agreement between its Department of Physics and Ghent University.

Attractive solution


Not only will this research – which aims to develop the materials necessary for transparent solar panels – enlarge the international research footprint of the UFS, but it is also an attractive solution to address the energy demands of buildings, electric motor vehicles, and mobile electronics without affecting their appearance.

According to Prof Hendrik Swart, from the UFS Department of Physics, the agreement between the two universities entails a joint doctoral degree in which both universities will supervise the project and the awarding of the doctorate. The student, Lucas Erasmus, will conduct research at both institutions.

Transparent solar panel

The idea with the research is to develop glass that is transparent to visible light, just like the glass you find in the windows of buildings, motor vehicles, and mobile electronic devices. However, by incorporating the right phosphor materials inside the glass, the light from the sun that is invisible to the human eye (ultraviolet and infrared light) can be collected, converted, and concentrated to the sides of the glass panel where solar panels can be mounted. This invisible light can then be used to generate electricity to power these buildings, vehicles, and electronic devices. The invention is therefore a type of transparent solar panel.

Implemented in cellphone screens

This technology can be implemented in the building environment to meet the energy demands of the people inside the buildings. 

The technology is also good news for the 4,7 billion cellphone users in the world, as it can be implemented in the screens of cellphones, where the sun or the ambient light of a room can be used to power the device without affecting its appearance. 

Another possible application is in electric cars, where the windows can be used to help power the vehicle.

Low-income housing

Erasmus added: “We are also looking at implementing this idea into hard, durable plastics that can act as a replacement for zinc roofs.” 

“This will allow visible light to enter housing, and the invisible light can then be used to generate electricity. The device also concentrates the light from a large area to the small area on the sides where the solar panels are placed; therefore, reducing the number of solar panels needed and, in return, reducing the cost.”

The technology will take about a decade to implement.

“This study is currently ongoing, and we are experimenting and testing different materials in order to optimise the device in the laboratory. After this, it needs to be upscaled in order to test it in the field. It is truly the technology of the future,” said Erasmus.

Video: Barend Nagel

News Archive

New modern dissection hall ensures optimal learning experience for medical students
2015-12-14

New Dissection Hall in the Francois Retief Building on the Bloemfontein Campus.
Photo: Stephen Collett

The School of Medicine in the Faculty of Health Sciences at the university opened its doors on 6 June 1969. Three years later, a dissection hall for anatomy training was added to the school. This year, because of the prospective growth in the number of medical students as well as in changing methods of teaching and training, a new modern Dissection Hall has been completed on the Bloemfontein Campus. This ensures that students receive an optimal learning experience during dissection tuition.

The Dissection Hall was built as a double-storey wing to the existing Francois Retief Building. Covering 733m², the new facility is on the first floor - the same level as the existing hall - to allow easy access between the two facilities. The ground floor, totalling 465m², houses various offices for 16 people.

The new hall has special lighting and modern equipment for the training of second-year medical students in dissection. The hall also has high-quality sound and computer equipment. A unique camera system allows students to follow dissection demonstrations on 10 screens in the hall. Dissection demonstrations are recorded, enabling lecturers to compile new visual aid material for teaching and learning.

The dissection programme for medical students is of critical importance, not only for acquiring anatomical knowledge, but also for developing critical skills in medical students.

The new hall is also used for clinical workshops and postgraduate teaching seminars, as well as workshops in orthopaedics (shoulder, hip, and knee), otorhinolaryngology, cardiothoracic surgery (valve and endoscopy), and anaesthesiology, among others.

Both present and future generations of medical students will benefit from this new world-class facility.

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