01.07.19 – 01.02.20
At the invitation of Yasmine Ostendorf, Head of the Lab for Nature Research at the Jan Van Eyck Academie, Kieren Jones, Course Leader of the Material Futures Masters Course at Central Saint Martins will become a Visiting Research Fellow at the academy in Maastricht for 6 months. He will establish a Future Material Library that artists and designers can access to cultivate a more holistic and sustainable artistic practice.
The knowledge, materials, processes and research developed over the duration of the fellowship will be disseminated through hands on workshops, interventions in the Labs (including wood, metal, printing and publishing, photography), and lectures.
The two institutions bundle their strengths and efforts in order to accelerate a shift towards the usage of artists' materials that don't negatively impact the environment - or our human health. In the transition towards global sustainability, artists cannot stay behind.
The fellowship will consist of a 6-month Research Fellowship at the Jan Van Eyck Academie where a series of research-led workshops will be developed that can then take place at the Jan Van Eyck for resident artists and then later at CSM for students of the MA Material Futures Course. The knowledge gained will also inform future Material Futures curricula and development.
Where possible, course staff, students and graduates of Material Futures as well the Van Eyck will be included in the development of the collaboration and it is hoped that by forging more formal links between the two institutions further knowledge exchange activities can take place in the future.
The Future Materials Library is made possible with the support of the Bank Giro Loterij Fonds
Van Eyck Locations: Printing and Publishing Lab, Garden, Greenhouse
Inks, dyes, paints and colorants.
The discovery of Mauveine (the world’s first synthetic dye) in 1856 marked a historical change in the way that humans develop and consume colour. Previous to Mauveine, all dyes and pigments were extracted from our natural surroundings making them more precious and often harder to find. The advent of synthetic dyes allowed us to explore a plethora of (until then) unavailable colours and cater to the ever growing demands of a fast-growing population.
However, the en-masse use of synthetic dyes within various industries has proven to have a detrimental impact not only on the environment but also on human beings. Today these dyes require the use of strong acids, heavy metals, alkalis, solvents, high temperatures, raw materials and high energy costs to be produced. Additionally, their disposal in rivers and the toxic fumes they emit when being processed contribute immensely to the contamination of our environment, the de-stabilising of natural ecosystems and the poor health condition of factory workers. Synthetic dyes and pigments have long been identified as some of the most detrimental materials on the planet and it is widely accepted by institutions such as the UN that if we are to have any chance of stabilizing our planet for further generations, then these industries must be addressed.
To explore how we can achieve more sustainable pigments by harnessing the potential of living materials, systems and processes.
To identify, cultivate and produce the necessary plants, materials, knowledge, techniques and equipment to produce more sustainable alternatives to pigments widely used in the creative industries.
Keywords: Indigo and woad, naturally occurring inks, food waste, earth-paints, natural-dyes, ancient pigments, synthetic biology, fermentation, silk-screening.
Van Eyck Locations: Wood Lab, Printing and Publishing Lab, Brightlands
Glues, gums, adhesives, varnishes and polymers
Plant resins are referred to as the viscous organic substance exuded by a variety of trees and plants, historically used as varnishes, adhesives, food glazing and incense. Today we know that the first use of naturally occurring resins dates back to the Stone Age where they were employed as adhesives for hafting stone tools.
However, the qualities of these natural resins have been mimicked and exceeded by the development of synthetic resins, which are now used as the base of plastics, adhesives, varnishes, composites and other products. Despite their use in a large amount of industries, these resins have proven to be greatly problematic due to their dependency on fossil fuels for production, their impact on the environment when being disposed of and their hazardous effect on our health.
To identify naturally occurring resins and polymers that can become viable alternatives to the resins that have a detrimental environmental impact.
To curate a material library of naturally occurring resins that could provide creative alternatives to synthetic resins. This could include identifying and planting plant species that enable the cultivation of such resins, as well as producing the necessary equipment and knowledge in which to harvest and process it.
Bio-kintsugi, bio-fabrication, propolis, plant gums, tree-tapping, botany, biomimicry, bitumen, bio-plastic, tar, sap & cellulose.
MINERALS & ORES
Location: Metal Lab, Garden, ENCI, Ceramic workshop
Earth, glass, metals and crystals.
Humans have mined materials for thousands of years, however, from the open pit mines that have decimated biodiversity and destroyed the habitats for animals and plants for thousands of years to come, to the abandoned pits and quarries of previous generations that leach toxic chemicals into our waterways and habitats, mining is widely regarded as having environmental effects on a magnitude and scale that is not often seen by a single industrial process. By identifying methods and techniques that could reduce or let us reuse precious metals and minerals it is hoped that we could significantly improve energy use, restore biodiversity and significantly replenish the natural environment around us.
To establish more sustainable practices of working and harvesting with Minerals and Ores.
To develop and build a sustainable metal foundry where aluminium can be recycled, smelted and cast.
To explore how different crystals and glass can be created more sustainably with the intention of identifying more ethical alternatives to current gemstones and minerals.
Artificial pearls, aluminium foundry, locally-sourced clay, mine shaft, bio-gemology, bio-polymers