GROW LAB CONSULTATION

  • packaging is a material stream that I can intervene more easily 
  • incineration – less toxic materials?
  • I should contact Invivo / daye etc and ask if anyone will sponsor this research
  • look into pop lit perspectives on microbiome data- popular literature: wired science, new scientist, scientific america 
  • looking for materials with
    • low immunity effects (doesn’t evoke an immune response)
    • hypoallergenic 
    • natural products perspective  

Research:

  • Seed
  • Daye
  • Invevo (nice pink marketing)
  • THE NEED FOE SWAB?: Harley street private gut microbiome clinic. Ask their perspective on sampling tools / swabs and patient opinion. Ask to interview – how do people digest the process 
  • COST: Is there a way to minimise the cost? Make it more accessible? Focus on certain cultures? Invevo has maybe done this?
  • MATERIALS: but plug as alternative material instead of inserting plastic swab device (look into skin microbial testing using sticker) think about lambs skin, natural latex, hyper allergenic? 
  • DESIGN: but hole mechanics, what shapes are comfortable/pleasurable. Have some designs ready to make next week. If the device was an applicator, how does it hold a swab, how does it get cleaned? Also what are the surrounding processes eg plastic tubes and instructions etc think about nerve endings. Look into tampon applicators and pessaries. 
  • VIBRATION: make connections that it could affect the body’s intake of nutrients? Is there a variety of frequencies that could do different things or is this speculation / creative license? What tech do I need to make a device vibrate?
  • QUESTIONS: microbiome profiling isn’t there yet… swabs are used so sampling can be done without needing to travel in the post… is it about the room at the clinic? could the project become about all the microbiomes? pleasure tools for the body? or about sampling to broaden the data base

mining for nutrition – soil gut

relationship between soil and the human gut?

how can and exploration of the human gut and its entanglement with soil help foster better a deeper understanding of topsoil ecosystems and ecological health? planitary soil.

I am looking at the human body as an interface to better relate to our degraded soil health. There is no global treaty of soil health yet declining nutrients are causing global health deficiencies. Soil are the foundation to nutrient cycles that sustain us all yet our relationship to it is detached and un-related and un-entangled.

The human gut and the ecosystem of the soil are comparable.

nutrients in soil is dramatically declining with conventional agriculture. soil health is an intangible concept, very far away from those of us eating and wearing the fruits of its labour. in Britain, an orange has 9 times less vitamins compared to one grown in the 1950’s. in the bread basket countries of the global south, nutrient deficiency have already impacted millions of women and girls and its predicted to only get worse.

alchemy was a pseudo scientific practice of transmutation, changing states of matter. in a global food system and climatic circumstances that will make 3% of the planet uninhabitable by 2100, where will we have to get nutrients from?

42% of UK residents struggle with IBS and gut related problems and this is often down to diet and the lack of nutrients the food we grow.

  • metaphysics – the branch of philosophy that deals with the first principles of things, including abstract concepts such as being, knowing, identity, time, and space.
  • speculative realist

TO DO

  • see if/get Regenesis out of the library – I want to go back over certain sections
  • book grow lab
    • vitamin powder
    • polarising glasses
  • ask henry if I can extract the e-waste that he volunteered
    • find tip/recycling unit to go get more e-waste – look up how to mine e-waste? youtube.
    • I should check msg with Huda and go to the tip near kings cross?
  • get some wool fibres and a woollen jumper
  • speak to grow lab about visualising the level of the vitamin and mineral molecules?
  • speak to a nutritionist….

TO RESEARCH

  • use speculative realist perspectives on hyperobjects (timothy mortom) and the real object of top soil (graham harmen)… rulling abstractions…
  • explore soil mythologies
  • soil maps of uk
  • explore specific minerals eg nitrates and phosphates
  • which same 4 bacteria dominate soil and gut?
  • Magic foods! Magic fruits! Good supplements from the future! The variety of fibre and veg we need. Cooking is chemistry, bio science 
  • Could I develop the tools to quantify nutrients in things?
  • Material characterisation (explore this skill and define the skill set and apply to this project) 
  • Nutrient characterisation? Would this use light or colour? How to build up a spectrum of characters
  • Chat to alex about soil 
  • Chat to Irene microbiome (final proj)
  • READ Polarized Light Microscopy: Revealing Hidden Structures
  • modern systems of fortifying foods
    • how could I go about extracting them from wool/soil/metals
    • IBS and gut related problems and this is often down to diet and the lack of nutrients the food we grow
  • what are the 20 sense
  • where is the data in this project?
  • is it possible to absorb nutrients through out textiles
  • Jane Scot wool 
  • Wool as substrate – living paint!?
  • explore words – as this always inspires me
  • fractal scaling? how can this be producing using runway etc? could make annimations from the vit visualisations if they work
  • need to find two locations to get soil from to compare vitamins? mind soil map?

NEW BOOKS

  • Dr. Lynn Margulis in her 1991 book Symbiosis as a Source of Evolutionary Innovation
  • Aurora – kin stanley robinson

Wendell Berry describes in his essay ‘The Pleasures of Eating’ “the industrial eater is, in fact, one who does not know that eating is an agricultural act, who no longer knows or imagines the connections between eating and the land.” ‘of cultural amnesia’

rhizosphere as gut

rhizosphere is like an external gut. in both case bacteria/microbes break down organic matter into simpler compounds that the plant or person can absorb. there are 1000 fila (major groups of bacteria) the same 4 dominate the rhizosphere and the guts of mammals. are these the most ‘cooperative’ types of bacteria? human infant immune systems are less active then that of adults, enabling a wide range of bacteria to establish in our guts, similarly young plants release fewer defensive compounds into the soil than older ones, allowing a broad verity of microbes to colonise their rhizosphere. human breast milk contains sugars called …. which are compounds that babies can’t actually digest but they are specifically to feed a specific group of bacteria that need to be developed that help to calibrate the immunes system. young plants release sucrose into the soil to feed their new microbiomes. just as the bacteria in our gut out compete and attach invading pathogens, the microbes in the rhizosphere create a defensive ring out the root – plants feed certain bacteria so they can crowd out certain pathogenic microbes and fungi, they deploy chemical warfare, releasing poisons that suppress harmful microbes and encourage helpful ones.because plants immune system co-evolved with the rhizosphere, it can’t work any other way than long back and forth communication such as releasing hormones into the soil when it is being attacked above ground sound that certain bacteria can respond by releasing their own hormone which in turn then allows the plant to release defensive chemicals in its leaves and to shut stomatta pores so fungi can’t invade

luminous symbiotic bacteria – civil war battle Shiloh Tennessee 1862, angles glow. insect eating nemetodes invaded the wounds and regurgitated bacteria and the antibiotics would have killed the other pathogens. genome mining helps to discover new antibiotics in the bacteria that live with plants

  • we need healthy and diverse soil to find antibiotics

less diverse diets with less fibre + over use of antibiotic + excessive hygiene = damages out gut biomes, reducing the number of species they contain which harms our dietry health and immunes sytems

plants seem to be less capable of fighting of pahtogens when they grow in damaged soils with a low diversity of microbes. where soil has been harmed by too much fertiliser, pesticides or fungicides, eccessive ploughing or crushing by heavy machinery, their crys for help are more likely to be exploited by parasites and pests

  • disposes = medical term for the collapse of our gut community…. this word could be applied to the unravelling of any ecosystem? (says George M)

soils with rich and well balanced microbiome suppress pathogenic bacteria that cause disease in people, making the transmission of human diseases through food less likely

  • researchers are experimenting with the agricultural equivalent of faecal implants but with soil, just as doctors take stool samples from healthy people and implant them into the guts of unhealthy patients, implanting suppressive soil into unhealthy conducive ground could suppress pathogenic bacteria and fungi
  • drilosphere = earth worm zone.
  • Nitrates and phosphates – illuminates how our invisible systems work and flow

REFLECTIONS:

I want to find aesthetic ways to visualise the unseen nutrients and microbiome of soil… to do this I need to find two locations as my comparison points? maybe in Somerset?

Why make chemical crystal images? – maybe as a comparison tool? visual aid – but also to bring imagery to the nutrients we are and are not getting from food? how this is facilitated by microbiome!

still need to work out how a comparison of gut microbiomes and soil microbiomes can be used and designed for…

maybe the outcome is a film……. at this point the imagery is more important than directly comparing two sites… which means I should get images of the vits and mins we are difficent in… and also explore the 4 bacteria that are common in both soil and gut!

Four types of bacteria commonly found in both mammals and soil include:

  1. Bacillus subtilis: Bacillus subtilis is a common soil bacterium known for its ability to form endospores, which are resistant to harsh environmental conditions. It is also found in the gastrointestinal tract of mammals, including humans, where it can play a role in gut health.
  2. Escherichia coli (E. coli): While some strains of E. coli can be harmful and cause illness, others are a normal part of the gut microbiota in mammals, including humans. E. coli is also found in soil, where it can serve various ecological roles.
  3. Mycobacterium spp.: Mycobacteria are a group of bacteria that include species such as Mycobacterium tuberculosis and Mycobacterium leprae, which can cause diseases like tuberculosis and leprosy, respectively. However, many other species of mycobacteria are commonly found in soil and are also present in the microbiota of mammals.
  4. Pseudomonas spp.: Pseudomonas bacteria are widespread in soil and are known for their metabolic versatility and ability to degrade a wide range of organic compounds. Some species of Pseudomonas are also found as part of the normal microbiota in mammals, including humans.

rulling abstractions

I have been reading about ‘ruling abstractions’

of ‘nature’, climate, food systems

nutrients within foods is predicted to continue to drop, not only because of conventional agriculture but also because of rising CO2 in the atmosphere

  • Minerals like iron sink calcium and magnesium and proteins and Vietminh b and diminishing in soil exposed to increasing amounts of co2 because plants grow faster in these conditions and have less time to absorb nutrients 
  • – George Monboit in Regensis

without these nutrients, humans can become highly deficient, especially girls, women and pregnancy.

where else will we have to get nutrient from? woollen garments? e-waste? how can we re-extract these vital elements from waste products ?

what is the relationship between between ‘detoxifying’ myths and fads and supplements and pseudo medical concepts to counter toxins entering our body VS the real health deficiencies from conventional farming and soil degradation and climate change

  • Edzard Ernst, emeritus professor of complementary medicine at Exeter University, “there are two types of detox: one is respectable and the other isn’t.” The respectable one, he says, is the medical treatment of people with life-threatening drug addictions. “The other is the word being hijacked by entrepreneurs, quacks and charlatans to sell a bogus treatment that allegedly detoxifies your body of toxins you’re supposed to have accumulated.”

Modern alchemy ?

  •  The word is a European one, derived from Arabic, but the origin of the root word, chem, is uncertain. Words similar to it have been found in most ancient languages, with different meanings, but conceivably somehow related to alchemy. In fact, the Greeks, Chinese, and Indians usually referred to what Westerners call alchemy as “The Art,” or by terms denoting change or transmutation.
  • metallurgy, art and science of extracting metals from their ores and modifying the metals for use. Metallurgy customarily refers to commercial as opposed to laboratory methods. It also concerns the chemical, physical, and atomic properties and structures of metals and the principles whereby metals are combined to form alloys.
  • History of metallurgy
  • The present-day use of metals is the culmination of a long path of development extending over approximately 6,500 years. It is generally agreed that the first known metals were goldsilver, and copper, which occurred in the native or metallic state, of which the earliest were in all probability nuggets of gold found in the sands and gravels of riverbeds. Such native metals became known and were appreciated for their ornamental and utilitarian values during the latter part of the Stone Age.

i would like to find a solid mythological starting point

  • Transmutation” is the key word characterizing alchemy, and it may be understood in several ways: in the changes that are called chemical, in physiological changes such as passing from sickness to health, in a hoped-for transformation from old age to youth, or even in passing from an earthly to a supernatural existence. Alchemical changes seem always to have been positive, never involving degradation except as an intermediate stage in a process having a “happy ending.” Alchemy aimed at the great human “goods”: wealth, longevity, and immortality.
  • Alchemy was not original in seeking these goals, for it had been preceded by religion, medicine, and metallurgy. The first chemists were metallurgists, who were perhaps the most successful practitioners of the arts in antiquity. Their theories seem to have come not from science but from folklore and religion. The miner and metallurgist, like the agriculturalist, in this view, accelerate the normal maturation of the fruits of the earth, in a magico-religious relationship with nature. In primitive societies the metallurgist is often a member of an occult religious society

transmutation –

the action of changing or the state of being changed into another form.”the transmutation of the political economy of the post-war years was complete”

  • PHYSICSthe changing of one element into another by radioactivedecay, nuclear bombardment, or similar processes.
  • HISTORICAL•BIOLOGYthe conversion or transformation of one species into another.

Remediation

I think this is a topic that really speaks to me because it is both intensely necessary in a state of planetary crisis and it can be reflective if places in the right context…

I hope this can lead me to explore ‘making’ with the living systems that remediate

this is not diverging too far from an extraction investigation because extraction leaves behind a mark that need remediating… also I am excited to touch back on invasive/remediation topics 5 years on from when I first looked at them.

how can fashion intersect with remediation? how can fashion repair? and restores and regenerate…

I want to make textiles from plants

I want to sculpt objects from toxic clay and paint on remediating bacteria that eat the toxins and can then be harvested and returned to the soil, rich in nutrients…. I want to create systems and show how they can be a cycle

wax from bees is used to cast silver from electronics to be the parts of an object that don;t get remediated…

REFLECTIONS ON MY PRACTICE

I want to work with organic forms, grown and biological and chemical and lab based… tech can come into this as a tool to exhibit and explain concepts and 3d and visual design can be used to take us on a journey…

think about companies that would be working in this area…. ponda – what would I want to do for ponda?

Types of remediating organisms:

  1. Microorganisms:
    • Pseudomonas putida: Known for its ability to degrade a wide range of pollutants, including hydrocarbons, solvents, and pesticides.
    • Bacillus subtilis: Effective in breaking down organic pollutants and promoting soil health.
    • Rhizobium: Forms symbiotic relationships with leguminous plants, fixing atmospheric nitrogen and improving soil fertility.
  2. Plants:
    • Helianthus annuus (Common Sunflower): Accumulates heavy metals like lead, arsenic, and uranium in its tissues, aiding in phytoremediation efforts.
    • Salix spp. (Willows): Known for their ability to absorb and accumulate contaminants such as heavy metals, organic solvents, and petroleum hydrocarbons.
    • Pteris vittata (Chinese Brake Fern): Hyperaccumulator of arsenic, commonly used in phytoremediation of arsenic-contaminated soils.
  3. Mycorrhizal Fungi:
    • Glomus intraradices: Forms arbuscular mycorrhizal associations with plant roots, enhancing nutrient uptake and promoting soil health.
  4. Earthworms:
    • Eisenia fetida (Red Wiggler Worm): Commonly used in vermicomposting to break down organic waste and produce nutrient-rich compost.
  5. Microalgae and Macroalgae:
    • Chlorella vulgaris: Widely studied for its ability to remove nutrients, heavy metals, and organic pollutants from wastewater.
    • Macrocystis pyrifera (Giant Kelp): Large brown algae that can absorb carbon dioxide and other nutrients from seawater, contributing to ocean carbon sequestration efforts.
  6. Insects:
    • Hermetia illucens (Black Soldier Fly): Larvae of this fly species feed on organic waste and can significantly reduce waste volume while producing nutrient-rich frass.
    • Tenebrio molitor (Mealworm Beetle): Larvae of this beetle species can consume polystyrene foam and other forms of plastic waste.
  7. Marine Organisms:
    • Mytilus edulis (Blue Mussel): Filter-feeding bivalve mollusk that can remove pollutants and improve water quality in marine ecosystems.
    • Crassostrea virginica (Eastern Oyster): Oysters are known for their ability to filter large volumes of water, removing suspended particles and pollutants in the process.
  8. Lichens:
    • Lobaria pulmonaria (Lungwort Lichen): Sensitive to air pollution, particularly sulfur dioxide, making it useful as an indicator species in air quality monitoring programs.

REFLECTIONS ON REMEDIATION

  • it’s interesting what can be made from remediatory organisms
  • I think it would be cool to frame this investigation in a future where we needed to harvest from plants that could survive in negative future climate conditions

book – ‘limits to growth 1972!

Metallurgy & Mineralogy

Sand, glass

Feldspar
https://cargocollective.com/materialnarratives/DISQUIET-LUXURIANS
– The resulting collection focuses on the material feldspar – the world’s most prevalent mineral which makes up 60% of the Earth’s crust. In designing a scenario in which it gains uniqueness, Emilie has transformed this otherwise meaningless rock into a series of Post-Luxurian artifacts, and in doing so challenged the gilded concept of rarity.

steel

copper – electronics

cobolt

uranium

neodymium – rare earth minerals

magnets….

Why do I want to look at metal extraction? how does it relate t mythic matter? how is a project driven by morality? where is the morality in this starting point? Do we ultimately need to stop extracting metal? is it as simple as that? find instances of heavily negative extraction politics. who would this work be for? the more than humans in the ground? miners? nation trust and environmentalists? communities around specific sites of extraction? consumers of fashion and textiles? those who want to better understanding of the issue?

I think metal is interesting in a mythic matter way because it is painstakingly found and taken from the earths crust for its physical/inherent qualities (strength, structure, alchemy) but also because of reasons that are contextual and mythical… (things like value,

THINGS TO RESEARCH ONLINE

  • i must look into the temporal contexts of different ores, what is the history of when they were made in earths systems, are they thought to be from different planets and stars
  • how do microorganisms interact with metal? what does a worm or a nematode do if it finds it in the soil?
  • the historical context of mining steel (iron+coaking coal?) + the making of stainless steel, silver
  • how do people in the uk’s heritage relate to these material’s extraction?
  • steel is 100% recyclable. copper as well is highly recycled.
  • history of alchemy – to use magic to turn lead into gold!
  • carbon dating can date anything alive within 50,000 years ago
  • the term prospect.. what other mining terms are there that could be interesting entry points?
  • why was it used as money?
  • why is it used for electical wires
  • how are magnets used and what is their function in electronics and products?
  • find instances of heavily negative extraction politics – silver in Peru? Singapore? any closer to home.

BOOKS

  • ‘a short history of nearly everything’ by bill bryson
  • wear next
  • history of extraction / pick a metal to start the search
  • alchemy

‘Prospect’, though seemingly a colloquial term, found widespread use in the world of mining in the mid-19th century.
‘Prospect’ refers to a piece of land with mineral value that has not yet been determined (but with the implication that there is indeed some value). A product of colonialism, the term was used to describe the hopeful settlers of the gold rush era–‘Prospectors’–as they pushed westwards in search for minerals, often accompanied by violence and exploitation of the native peoples.
By contrast, term’s Latin origins (‘prospectare’) refers to the act of looking outward and forwards. Its use from the 16th century onwards has come to imply ideas of optimism and the future.
This dual meaning–one of hope, and one of exploitation–mirrors ideas we have today in regards to progress and the need for extractive modes of production to sustain it.

REFLECTIONS

maybe I am most interested in how we relate to the materials we wear? how can we make the deep time framework of materials tangible to us?

  • very interesting project. what else could i make from extracted metals from electronics

metal

steel is used in women’s bras.

I’m interested in extraction of metals. I would like to look into metal mining and extraction because it intersects lots of things i am drawn to – wearables (and potentially women’s health and breast politics?), extraction and therefore ecological degradation, resource politics – and creatively it allows me to work with metal, welding, lost wax technique, jewellery/bras/corsets (bodices and wearables made from fabric and metal structures, metallic textures and blender renders…

in what why could lab work come into this? how could metal extraction and context and mythology intersect with biological systems?

the fact silver is antimicrobial is interesting! thinking about where metal and microbe overlap intrigues me!

Stainless steel, originally used in surgical equipment is now prominent fashion product/accessory. The main advantages of it is the high resistance to discolouration, lack of elements that can cause skin allergies, and the durability of the material. Modern surgical stainless steel bracelets are very popular as fashion jewellery.

there is something intriguing about the way metal ores exist amongst geological layers and deep time

next steps:

  • i must look into the temporal contexts of different ores, what is the history of when they were made in earths systems, are they thought to be from different planets and stars
  • how do microorganisms interact with metal? what does a worm or a nematode do if it finds it in the soil?
  • I want to re-read ‘a short history of nearly everything’ by bill bryson
  • the historical context of mining steel (iron+coaking coal?) + the making of stainless steel, silver
  • how do people in the uk’s heritage relate to these material’s extraction?
  • steel is 100% recyclable. copper as well is highly recycled.
  • history of alchemy – to use magic to turn lead into gold!
  • carbon dating can date anything alive within 50,000 years ago

GEORGE MONBOIT – REGNESIS

  • hot spots and hot moments – places and instances of intense biological activity
  • hutchinsonian hyper volume, this describes the multidimentional opportunities that permit the survival of different creatures. the more complex a system is across space and time greater diversity it can support
  • fractal scaling – how the soil structure is consistent regardless of the scale of magnitude you are observing it
  • soil is self regulating and adaptive – explains it’s structural resistance against droughts etc

another book id like to re-read is ‘bitch’, the book about female gender in animals and ecology.

also I have the book ‘critical design in context’ on my phone – I would like to make time to read this as well. It would be good to ground an contextualise the sort of practice I would like going into 2nd year.

sequins are potentially a fun medium / format to make in. craft-able. I feel like I could turn to scar, ella and cordie for help and collaboration in making patterns and ways to attach and finish a wearble.

  • The dress was made from approximately 6,000 ultra-thin steel sequins manufactured by Voestalpine Precision Strip AB in Sweden. Each of the 6,000 blade-thick steel sequins was hand-sewn. Ian Jones, the head of sales and deputy managing director at Voestalpine, emphasises “a complex series of high-precision cold rolling and annealing cycles to achieve these ultra-thin thicknesses.” As a result, the plates are thinner than mulberry silk.
  • The couturier was so passionate about the material that he expanded the concept and decided to use several shades of blue. Through a series of oxidation experiments, the researchers were able to paint a 0.022 millimetre thick steel strip in different shades of blue. This unique dress became the centrepiece of Josefi’s collection at Stockholm Fashion Week.
  • “I want to surprise, create something unexpected, and at the same time, environmental friendliness is also very important for me, and since steel is 100% recyclable, this dress has become exactly what I wanted to show the world,” says Naim Josefi. “All my collections are based on scientific research. Technology helps me implement complex ideas and thoughts,” he says.

Sarah Roseman, soft silica

  • Soft Silica is a new expression for glass that lies on the boundary between textile and glasswork. The material is brought to life and appears to be frozen in time, capturing the way glass melts in a static object through with the tactility of a textile. The project currently consists of glass tapestries and sculptural vessels as well as an extensive and ever growing archive of samples. It is a continuing glass research that evolves and develops with each iteration, to find future possibilities and applications for this exciting new material.
  • OCR-A = the font designed in the 60s to be understood by machines
  • ‘its always about capitalism no technology’
  • Machine Art 1934 at the MoMA
  • the anatomy of an AI system – the planetary cost of an AI system
  • https://anatomyof.ai/
  • it has lots of interesting contextual points eg ‘Marx’s dialectic of subject and object in economy’ and ‘Fractal chains of production and exploitation’ and ‘ Submarine Cable Infrastructure’
  • its also a really engaging diagraming example of a life cycle analysis

SOFIA CRESPO

  • https://sofiacrespo.com
  • interesting projects are ‘beneath the neural waves’ and ‘neural zoo’ and ‘critically extant’

https://cargocollective.com/loekiesmeets/Smart-by-Nature

What is a Field Book?

Field books are original records of scientific discovery. As such, they are primary source material that describe a range of information including the activities performed during the observation and collecting of specimens, the native environment for those specimens or events surrounding or related to the field collection of specimens or observations during field research.

The traditionally handwritten field documentation in the nineteenth century began to include other forms as technology advanced. As photography equipment became easier to transport, for example, the documentary value of photography became a useful form of field documentation. The Field Book Project catalog a variety of field note formats include photography, film and audio materials.

  • a technology – as James bridle describes it
  • documenting data
  • making sense and connecting, multicellular formations that make up a picture or a state
  • botanical drawings and scribbles becoming a

REFLECTIONS on ‘mythic matter’

It’s really only just dawning on me as to how much this brief suits me and my practice. the things that make me feel something are those instances when I am taken outside of myself and am shown a new reality. a new formation of this reality.

latent‘ – existing in hidden or dormant form.

latent’s etymology comes from the latin ‘to lie hidden’.

the underneath. the underground!

I am interested in things that are myths in that they are out of view.

I want to bring that which is beyond out senses into the experienceable.

I think see this project as an opportunity to explore the visual artists side of my practice. the side that wants to make translations of ecology , to make feelings of ecology and relationship to deep time ‘present to hand’.