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Art and the Anthropocene Uncategorized

Art and the Anthropocene_Presentation & Reflection

The presentation about Suzanne Lee

Link 

Reflection:

In the presentation, I find that Suzanne Lee’s exploration of scoby leather works within the framework of material-driven design (MDD), and it exemplifies a transformative shift in material use. By starting with living materials like bacteria, her work challenges the traditional use of material (that people always use animal-based materials or synthetic alternatives) and provides a new possibility of material. This shift resonates with themes in Material Activism and DIY Materials, emphasizing a democratized and environmentally conscious approach to material innovation.


Material-Driven Design (MDD) stresses the importance of understanding a material’s sensory, emotional, and functional dimensions​(Material Driven Design). Lee’s scoby leather redefines these attributes. The material’s microbial origins elicit both curiosity and ethical considerations, making users more conscious of its living nature. For example, it is intuitive to see that scoby is growing every day and the texture of it is very similar to the skin of animals. And because of this characteristic of scoby, it is natural for people to get a sense of reverence for life and use it with care, achieving the material-driven design goal of reducing material waste. With this logic, it’s hard to explain why people wouldn’t feel the same way about plant-based material or animal-based material since all of them are living creatures. However, the discussion about this ethical question implies that there is a hierarchy of material use: plant-based and microbial materials are often undervalued compared to animal-derived materials. Moreover, by recognizing the SCOBY’s life cycle, we acknowledge its ability to grow, mature, and decompose, which allows it to seamlessly integrate into circular material systems. This transformative potential—where it shifts from a microbial culture to a durable material and back into the earth—makes it more valuable in the context of sustainable design. It shifts the focus from “what scoby is” to “what can scoby achieve”, thus aligning with MDD’s experiential and outcome-driven design (since we need to have the utilitarian assessment for the material) philosophy.

In addition, the readings on Material Activism and DIY Materials further underline the role of designers as material innovators who can challenge industrial norms by introducing low-tech, self-produced solutions. The “democratization” of material production enables a re-evaluation of hierarchies by focusing on the expressive and sensorial qualities of alternative materials. Scoby leather offers unique tactile experiences and works as an open-source material helping designers and artists to freely use it to improve their design, not being trapped by the industrial-produced material. 

In conclusion, the integration of living materials like SCOBY in design not only highlights material hierarchies but also redefines them through ethical and sensory dimensions. By prioritizing sustainable, living materials over traditional ones, designers like Suzanne Lee are paving the way for more equitable and innovative material futures.

 

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Art and the Anthropocene

Art and the Anthropocene_Project 2 Prototype

Individual Response

In the reading Natsai Audrey Chieza’s project, “Design Fictions” explores how synthetic biology and design might reshape human identity in the future. I chose this project because it connects to our idea of creating hybrid humans (cyborgs) by combining biomaterials and electronics. Both projects imagine humans as adaptable beings, evolving with new materials and technologies.

Chieza’s project includes ideas like Voluntary Mutations, Parasitic Prosthetics, and Bio-Collectibles. These concepts show how synthetic biology could enhance or change the human body. For example, Voluntary Mutations imagines people customizing their bodies with DIY genetic tools, while Parasitic Prosthetics proposes using organisms to help humans adapt to new environments. These speculative ideas challenge our understanding of human autonomy and raise ethical questions about merging biology with technology.

This project ties to class readings on the Anthropocene, particularly the idea of humans’ impact on nature and the need to create sustainable futures. Chieza imagines a post-Anthropocene world where humans work with nature through biological and technological hybrids, rather than dominating it. This connects to ideas from Haraway’s “Cyborg Manifesto,” which encourages breaking down barriers between human, nature, and machine.

From a speculative design perspective, Chieza’s project inspires critical thinking by imagining alternative futures. It aligns with my understanding of speculative design as a way to challenge current norms and propose new possibilities. While her project focuses on biological changes, my project explores the combination of biomaterials and electronics, specifically using biomaterials to replace the metal components traditionally associated with cyborgs. This approach not only redefines the visual and functional aspects of cyborgs but also questions how natural and technological elements can work together in a more sustainable and organic way. This difference highlights how speculative design can approach similar themes in unique and innovative directions.

One idea I found especially inspiring is the focus on accessibility and participation. Chieza imagines these technologies as tools anyone could use to customize their body. This makes me think about how cyborg designs could be personalized and available to everyone. The Bio-Collectibles also encourage me to consider how hybrid designs could reflect cultural identity and personal expression, pushing my project beyond just functionality.

Prototype for Project 2

This week, Jacenia and I worked on our concept of the cyborg, trying to create a work about the hybrid of human beings, nature and technology (electronics)

Prototype 1

Recipe: 160g borax powder, 400ml hot water

We try to grow crystal over the electronics and we feel that it works. In order to make it fits better with the shape of the body, maybe we would consider to connect it with cloth 

Other test:

We also test the recipe of ALUM CRYSTALS ON SILK and because of the limitation of the material, the crystal growing on it looks tiny. We need to test this recipe in relatively big amount

Prototype 2 

We experiment on soy wax and beeswax (50g each and combine them together) and try to put our electronics inside. Quickly we find that we need to use the silicone model to shape it since we can not remove it from the glass container well… But the good thing is that wax can be reshaped when we melt it. In that case, we can repeat to test with the same material. 

wax + electronics

discovery: wax can form irregular shapes instantly when poured directly into cold water

wax + electronics + fabric ; easier to demould but hard to maintain its shape

wearable test

added tea leaves

(also test to put it over the borax solution to see if crystal can grow on it)

Prototype 3

We use the gelatin recipe (180g water, 36g gelatin and 15g glycerin) and pour half of the mixture into the container, and put our electronics into it. 

We also sprayed some of the borax solution onto it and expected the crystal would grow on it but maybe because the amount of solution was not enough the crystal was too tiny

Prototype 4

We combine the other half of the gelatin mixture with about 30 grams of beeswax and we find that the mixture dries very fast and it easy to create a shape. It looks consistent with the grapefruit peel fabric we created before. We also find that applying wax to the cloth is helpful in fixing the shape of the cloth  

Plan A

Work with crystal, cloth and electronics to create a more natural combination of nature and technology. And also work more with the gelatin to connect electronics rather than using the circuit board 

Plan B

Just in case if the effect is not very ideal in the wearable device we are also thinking about using similar ways of creating the material but put our project in another scenario

Growing Stars

I am always thinking about growing stars. Because of environmental pollution, it is more and more difficult for people to see the stars with their eyes. In the future, stars will be more invisible to normal people and then they decide to grow the crystals with the material they have. 

We are thinking about creating a garden for the “stars” and presenting different speculation of the stars (different shapes) We feel that using crystal is the most feasible idea now

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Art and the Anthropocene

Art and the Anthropocene_Assignment 9

In this week, Jacenia and I tested the recipe based on the orange peel. We change the orange peel in the recipe into the grapefruit peel and change the wool fiber into the paper fiber we have (the kitchen towel)

Recipe:

  • Paper fiber: 14 g
  • Water: 3500 mL
  • Grapefruit peel: 84 g
  • Calcium chloride
  • Sodium alginate: 87.5 g
  • Glycerin: 294.7 g
  •  Oil: 39.2 g

We did not realize at that time that we had made too much material… We found the frame in the video is a little bit big but it seems acceptable if we use the ovenware in the lab… Be careful about the amount of material!!!

We cut the grapefruit peel we have into small pieces and dry them in the microwave and the oven. (The oven works better)

And then we put these dried grapefruit peels into the blender and make them into powder

After that, we take a big pot and mix everything together

We put the mixture into the fridge to avoid air bubble

A day later, we take the pot out  and add paper fiber to it

We found that the grapefruit peel and paper fibers didn’t incorporate well into the mixture, so we used the blender again. After that, we pour the mixture into the mold

(The fact is that we should use a pulverizer to process the material into a very fine powder as soon as it is processed so that defoaming in the refrigerator is effective. However, we have found that the bubbles are actually eliminated after a short period of time, so perhaps cooling in the refrigerator is not very necessary)

At last, we spray calcium chloride solution (10%) onto the material

In design, this material could be explored for eco-friendly packaging, especially food packages, or even temporary structures in exhibitions, as it’s biodegradable and visually distinctive. It could also work well in small-scale decorative objects or home goods, adding a rustic, eco-conscious element to design projects and it also has a good smell

 

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Art and the Anthropocene

Art and the Anthropocene_Assignment 8

In this assignment, we continue to work on the recipe based on carrageenan. 

Recipe:

Water: 560 ml

Carrageenan: 25.6 g

Glycerin: 10 ml

We tried butterfly pea pollen and added vinegar to make a beautiful purple color.

We plan to laser-cut the material and connect each piece together but we find that the material is easy to break. (Maybe because the recipe can not be enlarged according to the size and it is necessary to take more consideration on the amount of material. I find the thinner part at the edge of the material is relatively stronger than the other part)

So we decided to use wool to transform the piece

Moreover, we made a small bowl with paper and starch to make a small bowl and the carrageenan-based material can be used as both of the placemat and the carry bag.

Recipe

paper, corn starch, water 

(Once I broke up the paper I started mixing it with cornstarch and water and started kneading it until it felt like it was no longer dripping and could be molded, then pressed it into a small bowl mold)

During this process, I found that the material based on the paper and starch can be the replacement for the plastic since it becomes strong when it dries. The material based on carrageenan is more fragile when it is relatively thick. I think is can be a substitute for the plastic film when it is relatively thin.