Editing footage for the video Belly of a Rock which will be shown on an old monitor encased in a sculptural hybrid form relating to both mollusc and rock. The giant sea slug of the mollusc family, can derive directional cues from the magnetic field of the earth which is then modified in response to the lunar cycle. It orients its body between north and east prior to a full moon. In the slug’s nervous system, four particular neurons are stimulated by changes in the applied magnetic field, and two are inhibited by such changes suggesting that the animal uses its magnetic sense continuously to help it travel in a straight line.
The Earth can be divided into the inner core, the outer core, the mantle, and the thin crust. The outer core is about 1,367 miles thick and mostly composed of liquid iron and nickel. It is very malleable and in a state of violent convection. The churning liquid metal of the outer core creates and sustains Earth’s magnetic field. At the boundary between the inner and outer core temperatures can reach 6,000° C which is as hot as the surface of the sun. The inner core is a dense ball of mostly iron, but with a temperature above the melting point of iron, it is not liquid or even molten. Intense pressure from the rest of the planet and its atmosphere prevents the iron inner core from melting as the iron atoms are unable to move into a liquid state. It could be described as a plasma behaving as a solid. The inner core rotates eastward, like the surface of the planet, but it’s a little faster, making an extra rotation about every 1,000 years. Geoscientists think that the iron crystals in the inner core align north-south, along with Earth’s axis of rotation and magnetic field and are arranged in a hexagonal close-packed pattern. The orientation of the crystal structure means that seismic waves travel faster when going north-south than when going east-west. Seismic waves travel four seconds faster pole-to-pole than through the Equator.
The Earth is still cooling and as it does so, bits of the liquid outer core solidify or crystallize causing the solid inner core to grow by about a millimetre every year. The growth is not uniform, it is influenced by activity in the mantle and is more concentrated around regions where tectonic plates are slipping from the lithosphere into the mantle, drawing heat from the core and cooling the surrounding area. The crystallization process is very slow, and further slowed by the constant radioactive decay of Earth’s interior. Scientists estimate it would take about 91 billion years for the core to completely solidify but the sun will burn out in just 5 billion years.
I have nervously passed the cosmic ray detectors over to programmer Jamie. It was hard to let them out of my sight after so much work to get them built but he can’t test the code he has written without them. The Breath of Stars directly interacts with cosmic rays in real time to trigger a digital reaction via a mini computer attached to a block of plastic scintillator and a sensitive photomultiplier. As each particle strikes the plastic scintillator its energy is recorded and a starburst image video relative to the energy released is projected, with the largest images representing the particles with the highest energy.
I am constructing an Obelisk sculpture in response to the concrete obelisk erected in 1955 at Hartland Magnetic Observatory, near the site’s northern boundary as a permanent azimuth mark. It is viewed via a theodolite through a window in the north wall of the Absolute Hut, its azimuth being 11º27’54” E of N and marks the point from which the magnetic north pole is tracked as it drifts westwards. Layers of torn recycled paper are stacked like sedimentary rock that holds clues to the Earth’s magnetic field reversals in its strata.
Copper contours of magnetic field lines have been lacquered to preserve the heat patina from plasma gun cutting. These shapes will be pinned to the north facing mossy wall of the Absolute Hut installation, a reimagining of the Absolute Hut at Hartland Magnetic Observatory. I will also employ a north facing window from which to observe the azimuth mark of the Obelisk sculpture.
A second research visit to RSPB Snettisham, this time to see the pink footed geese (which over winter on the mudflats here) leave their roost at dawn to fly to the fields to feed.
The walk from the car park to the viewing area is over 2km and takes about half an hour to walk. Setting out before first light the weather felt promising but just as I erected the camera tripod the rain came down hard and didn’t stop for the rest of the morning.
Made a second attempt the next morning leaving a little earlier and although it remained dry there was heavy fog over the sea. Not great for filming with my very basic kit but very atmospheric to experience as the geese emerged from the sea mists.
The noise they make is incredible, a constant chattering building to a crescendo of honking calls as they rise from the water and swarm across the sky in their hundreds. They come in waves but look like particles. At one point what sounded like a few gunshots fired out across the bay in the distant darkness. This sudden disturbance set off a slow deep rumble which drew closer accompanied by a low dark cloud growing heavily stronger building and rising as a huge tidal wave of geese rose simultaneously into the sky in panicked disarray. Extraordinary to witness.
Birds are able to “see” Earth’s magnetic field lines and use that information for navigation. Their compass ability comes from a quantum effect in radical pairs, formed photochemically in the eyes. This light sensitive magnetic compass used by birds is affected by the polarisation direction of light. Exposure to blue light excites an electron, which causes the formation of a radical-pair whose electrons are quantum entangled, enabling the precision needed for magnetoreception.
In chemistry a radical is an unpaired electron which is can be highly chemically reactive. In the radical pair mechanism a pair of electrons with opposite spins have a chemical bond. Light can cause the electrons to change spin direction which can break the bond giving the electron a chance to react with other molecules. In magnetoreception two cryptochrome molecules, found in the rod cells in the eyes of birds, each with unpaired electrons, exist in states either with their spin axes in the same direction, or in opposite directions, oscillating rapidly between the two states. That oscillation is extremely sensitive and can detect the weak magnetic field of the Earth. Birds then move their heads to read the spin of the molecules and therefore detect the orientation of the magnetic field.
While in North Norfolk staying in a beach chalet away from light pollution I was able to make a couple of short time lapse videos centering on Polaris.
Birds can detect the slow arc of the sun and the rotation of the constellations across the sky which is imperceptible to humans and allows migrating birds to orient themselves using celestial navigation as well as magnetoreception.
Birds are also able to detect rapid movement such as individual flashes or flickering of a fluorescent light which humans see as a continuous light. Hawks which pursue other birds through dense forests at high speeds, follow the movement of their prey while avoiding branches and other obstacles. To humans travelling at this speed, the fleeing prey, branches and obstacles would just be a blur.
Gallery Visit
Thames-side Gallery ‘The Accurate Perception Available When Our Eye Becomes Single’ is an immersive multi-screen installation evoking the emotional specifics of place (Orford Ness on the Suffolk coast) while exploring the elasticity of time and history. It is an audio-visual collaboration between Richard Ducker (video) and Ian Thompson (sound) with no linear narrative; sound and image are not synchronised, so each viewing is a unique experience. Sarah Sparkes also makes an enigmatic performative appearance both in the video and live in the gallery.
The crashing sea on shingle, open spaces and brutalist bunker architecture of Orford Ness are echoed in the gallery with audio pitched to envelop and resonate but not overwhelm. Nicely done.
Listening
I really enjoy the Inside Science podcasts with Gaia Vince and this one interviewing cosmologist and theoretical physicist Laura Mersini-Houghton about finding evidence that supports her multiverse theory was particularly fascinating.
According to Laura the single universe theory is mathematically impossible.
Reading
Merlin Sheldrake’s Entangled Life. A remarkable reveal of an other world, so different yet so entwined with our own. Beautifully clear analogies help to bridge an understanding between human and fungi.
The ability to detect and respond to chemicals is a primordial sensory ability.
In humans when a molecule lands on our olfactory epithelium and binds to a receptor it causes nerves to fire triggering thoughts and emotional responses.
A mycelial network is one large chemically sensitive membrane: a molecule can bind to a receptor anywhere on its surface and trigger a signalling cascade that alters fungal behaviour.
Fungal lives are lived in a flood of sensory information.
They have light receptors, are sensitive to touch and it also looks like fungi may form fantastically complexnetworks of electrically excitable cells – a potential ‘fungal computer’ using electrical signalling as a basis for rapid communication and decision making which could learn and remember.
Delighted to have my video installation At a Distance included in The Anxiety of Interdisciplinarity exhibition in the subterranean labyrinth of former police cells that is The Island Venue in Bristol. Curated by Sarah Strachan and Ayeshah Zolghadr. Exhibition Images by Steve Russell Studios.
This is a satellite exhibition of the International Printmaking Conference taking place at The Centre for Print Research, University of the West of England, Bristol. Motivated by the International Multidisciplinary Printmaking Conference IMPACT 12’s theme ‘Merging and Metamorphosis’, the exhibition aims to trace the metamorphosis of conversations between disciplines, seeking to reframe printmaking practice as a ‘site of interdisciplinarity’ and consider contemporary approaches to print as ‘a site of ambivalence, tension or a fertile ground for exploration and experimentation.’
Works include:
Valerie O’Regan, Vertical Landscape Nicky Harwood Parachute Åse Vikse The Sixteen Hannah Robin Baker “In Conversation With…” Heather Burwell Nostalgia Erika Cann Feldspar Score Katy Drake Expose Pauline Scott-Garrett An Almost Invisible Wound Debby Lauder Fair, Fine, Brisk Sarah Strachan The Security Dilemma Lon Kirkop Ċella ta’ Wieħed Rana Al Ogayyel Visual Sound and Hear the Print Judy Dibiase Trace Laura Greenway Never Enough Mick Paulusma Being There A. Rosemary Watson line_space_form III.VII.I Katherine Van Uytrecht Cellular Sound Ayeshah Zolghadr Individuated Copy Series Nicole Pietrantoni Still Life: Darwin’s Barberry Simon Leahy-Clark Untitled Cameron Lings Drawing: The Expanded Field Mary Rouncefield Escape To Infinity Jon Michaelides 16 x 64 Susan Eyre At a Distance Corinna Reynolds Traces of Pathways Strachan + Zolghadr Boundary Objects Heather Burwell Playing Games Alexandra Sivov “Listen To Me!” Joe Dean Southern Trains Loop Corinna Reynolds Traces of Pathways Daniel Bell Growing Blackness
At a Distance looks at remote methods of communication and relates this to the mysterious twinning of electrons in quantum entanglement where particles link in a way that they instantly affect each other, even over vast expanses. Einstein famously called this phenomenon ‘spooky action at a distance’. Filmed on 29th March 2019 in Cornwall as the iconic Lizard Lighthouse powers up its lamp, solitary figures using semaphore flags sign ‘We Are One’ out across the ocean in the hope the message will be echoed back. Drawing on the physical language of print that embodies touch, separation and mirroring the flags have been printed using hand painted dye sublimation inks applied via a heat press. This process transfers the ink from a paper matrix onto the substrate textile. The image passes momentarily across space in a dematerialized state as vapour before being reformed as its mirror opposite.
Research visit to Hartland Magnetic Observatory. I am very grateful to The British Geological Survey for allowing me access to the site and particularly to Tom who shared his knowledge and gave a fascinating tour of the observatory. He was a little perplexed by my request to see the obelisk with the azimuth mark determined by observations of Polaris as he thought this description was a slight exaggeration of what was actually present. The ‘obelisk’ is almost hidden in thick undergrowth and impenetrable woodland so this object, just glimpsed amongst the trees remains an enigma.
Hartland was established in 1955 and is part of a network of international observatories sharing information with governments and industry, the charts of the shifting magnetic field are also publicly available. The buildings are made of lime bricks and timber, with concrete flooring and roofing of copper.
The Earth’s magnetic field acts as a shield against potentially harmful charged particles from outer space. It is also holds clues to the planet’s deep interior and geological history which are inaccessible to direct observations.
Magnetic declination is the angular difference between magnetic north and geographical or true north for any point on the earth’s surface. The British astronomer Sir Edmund Halley was interested in the magnetic field and knew about declination based on the observations of sea captains and explorers in various parts of the world. He made two scientific voyages in the Atlantic Ocean as captain of the HMS Paramore between 1698 and 1700 when he charted declination in the Atlantic and from his observations published the first geomagnetic field map in 1701. His observations involved recording the position of celestial objects and the angular distance of the sun on the horizon.
I am intrigued to know what the middle species he encountered between a bird and a fish might be. Penguins with long swan necks?
Alexander von Humboldt determined that the magnetic field increased in intensity with distance from the equator based on magnetic field observations during his scientific journeys 250 years ago. He initiated coordinated observations across the globe and thus laid the foundation for international data exchange and collaboration.
Observation is essential to gain insight into the complexities of the geomagnetic field which is created by a combination of three separate fields. The main field is generated in the earth’s core, the second from electrical currents caused by solar weather as cosmic particles bounce off the Earth’s main field charging the surrounding ionosphere and thirdly from the magnetisation of the surrounding geology of the rocky mantle and crust.
The purpose of a magnetic observatory is to measure the size, direction and changes to the natural magnetic field at the surface of the earth. There is no clear separation between north and south currents at the equator as many diagrams suggest, everything just gets a bit muddled with tangled currents.
The fluctuations in the geomagnetic component fields occur over hugely different timescales, changing by the second as we orbit the sun, to the yearly drifting of magnetic poles and the millennia of deep geological time. To study these changes an observatory must make measurements at exactly the same point over a long period of time.
Activity in the ionosphere causes a compass needle to shift slightly throughout the day but these changes, although rapid, are very small, so the instruments measuring these fluctuations must be very sensitive and operate in an environment free from man made magnetic contamination which is why I was advised to park some way from the observatory.
Rapid changes in the geomagnetic field due to magnetic storms can impact navigation data which is particularly important for the oil industry that uses this data for accurate drilling references. Data monitoring solar variability can also help studies into the mechanisms of climate change. It has been noticed that the Sun’s coronal magnetic field has doubled over the last century and this may have an effect on cloud formation which has an impact on warming the planet.
Today at Hartland, the intensity and direction of the magnetic field is sampled using one manual and two automated instruments. A fluxgate magnetometer (variometer) is used to measure variations in the direction of the field every second. It has copper coils and three orthogonal sensors (measuring north, east and vertical). This instrument is extremely sensitive, mounted on a marble block on a pillar set into the bedrock to avoid tilting, it must be kept at a constant 23C temperature. It is housed in a special building with thermally insulated inner chambers within inner chambers, isolated in the dark, it is only visited once a year. We didn’t even walk too close to the building which appeared to have no door.
The second automated instrument is a proton precession magnetometer to measure the strength of the field. This also has its own building and new equipment is being tested here. As new instruments are introduced previously unseen minute fluctuations are revealed.
The manual instrument is a fluxgate theodolite housed in the Absolute Hut looking out of the North facing window. It sits on a lime brick and concrete pillar. This instrument has a magnetic sensor mounted on the non-magnetic telescope of the theodolite to detect when it is perpendicular to the magnetic field vector. True north is determined by reference to a fixed mark of known azimuth. This was the obelisk though today it is determined by GPS.
Absolute and variable measurements are combined to give a full record of the field.
It used to be that all the measurements were made by hand and this took time and skill to produce accurate results. The beautiful old instruments used still sit in the buildings at Hartland.
The Dye Coil measured the strength of the field in the vertical direction, using a coil that vibrates in the presence of a magnetic field as the sensing element. The Schuster-Smith magnetometer measured the strength of the field in the horizontal direction, using a magnet, a mirror and a light source to make a sensitive detector. The decinometer measured the angle between true and magnetic north using a freely suspended magnet and a theodolite to measure the angles. Three Danish LaCour variometers were kept in the recording house, each measuring the strength of the field, one for the north-south component, another for east-west and one for the vertical component of the field. All three used magnets attached to mirrors, which were free to rotate in the Earth’s magnetic field. A thin beam of light shone onto each mirror was reflected back onto a rotating drum covered in photographic paper. The drum driven by clockwork rotated once a day.
There are also three satellites which monitor the magnetic field from space (though these may only have about three more years of useful life). ESA’s ‘Swarm’ mission is dedicated to the study of the mysteries of the magnetic field which although invisible, together with electric currents in and around Earth, generates complex forces that have immeasurable impact on everyday life.
Using measurements from ESA’s Earth Explorer Swarm mission, scientists have developed a new tool that links the strength and direction of the magnetic field to the flight paths of migrating birds. This new research means that the study of animal movement can now combine tracking data with geophysical information and lead to new insights on migration behaviour.
Hartland Observatory is situated on the dramatic North Devon Coast with stunning local geology. When the Earth formed about 4.5 billion years ago from the collision, accretion and compression of matter it was rock all the way through. Heat from the massive violence of formation along with radioactive decay caused Earth to get hotter and hotter. After about 500 million years as a rocky lump it reached the melting point of iron. Known as the iron catastrophe this liquifying caused planetary differentiation to occur as lighter material rose to the surface becoming the mantle and crust while heavy metals sank to the core becoming the churning dynamo powering the magnetic field.
During my visit the weather was kind and so I was able to fly my drone around the cliffs and rocky bays. I am still terrified of disaster every time I take it out, compounded by almost getting caught out by the incoming tide but I did get some useful footage for my ‘Belly of a Rock’ video sculpture I am working on.
When night falls after a warm day at certain times of year bioluminescence can be experienced at high tide in Hartland Quay. A young woman, and her mother (who swims across the bay at night here regularly) invited us into the pitch darkness to see the green sparks fly as we splashed in the rising water. It was incredible to witness. Swimming in the water limbs are coated in a luminescent glow. I tried to film the flashes on my phone and thought I had been unsuccessful as what I captured appeared totally dark. However, back at home I tried pulling out what information there was on each frame and managed to get a film sequence that might not show exactly what I saw but has an essence of the experience.
Visit to The King’s Observatory built by George III for the purpose of observing the transit of Venus across the sun in 1769. This observation allowed measurement of the distance from Earth to the sun, later named as the astronomical unit at around 150 million kilometres (8.3 light minutes).
It is now a family home and so the decor although representative of Georgian taste does not reflect the working laboratory that it once was.
Fascinating to discover it was also the site of the meridian line marked true north-south by two obelisks either side of the west room which housed a tracking telescope. There is a third obelisk due south from the east room which housed a mural quadrant used to measure angles. It wasn’t possible to walk over to the obelisks as the Observatory is in the middle of a golf course now, but there is a path to them via the Old Deer Park which I will walk another day. An accurate clock here provided standard time to the government before the task was transferred to Greenwich Observatory.
In 1842 it was renamed Kew Observatory and taken over by The British Association for the Advancement of Science. The Meteorological Office was based here, making regular records of the weather from 1773 until 1980. It was also home to the National Physical Laboratory between 1900 and 1914 when scientific instruments were checked for accuracy and stamped with KO, a hallmark of excellence if they passed.
The two huts remaining in the grounds were used for meteorological and magnetic observations and are built with no nails which might interfere with the instruments used within.
Francis Ronalds, director at Kew Observatory from 1842, invented several camera designs subsequently used in both weather forecasting and in understanding the perennial perturbations in terrestrial magnetism. Photography was used early on in its development for use in scientific investigations. Ronalds’ first instrument captured observations from his atmospheric electricity apparatus. He went on to record atmospheric pressure and temperature using the same method and had soon extended his approach to geomagnetism. His magnetographs “established the standard technique employed for magnetic observatory recording worldwide for more than a century” – Encyclopedia of Geomagnetism and Paleomagnetism.
In 1908 the geomagnetic instruments were relocated to the magnetic observatory established at Eskdalemuir in Scotland to undertake magnetic work for which Kew was no longer suitable after the advent of electrification in London led to interference with their operations.
Ronalds had also established an atmospheric electricity observing system at Kew with a long copper rod protruding through the cupola dome of the observatory connected to electrometers and electrographs to manually record the data.
Lord Kelvin later installed an updated electrical observation system and CTR Wilson (the inventor of the cloud chamber) set up a secondary system using different principles which has been useful in historical air pollution research.
I am extremely grateful to Professor of Chemistry at the University of Oxford Peter Hore for spending time chatting on zoom with me about his fascinating research into the ability of birds to navigate using the Earth’s magnetic field. There is a link to a YouTube lecture by Peter on Radical pair mechanism of magnetoreception here.
Research confirms there is a chemical reaction in the bird’s eye sensitive to magnetic fields as weak as that of the Earth. This happens in an array of reactant molecules which can be changed into extremely short lived radical pairs which are magnetically sensitive. The reaction in the molecules to produce radical pairs is triggered by light from the sun or stars. It is thought that this chemical compass is sensitive to direction not intensity of the field and may use the energy from blue/green photons to power this reaction. During this reaction, as the bird changes direction, some radical pairs perform one way and others another creating difference across the array of molecules which is detected by the bird.
My question to Peter was to ask for his thoughts on whether a bird’s ability to ‘see’ the magnetic field manifests itself visually and if he has any understanding of what the bird experiences. He had to confess that how this sense is experienced by birds is not known but he had done some speculative modelling with a PhD student representing the field as fluctuating visual contour lines mapped over the landscape.
The birds eye is very complex and so there is still a lot to be learned about how this ability functions. Bird’s retinas have rods that are sensitive to light intensity and cones sensitive to red, blue and green wavelengths of light like us but they are also sensitive to ultra violet light. There are also double cones in the bird’s eye and their function is not clear, it could be that these are seconded for magnetic reception at night when they are not active.
Often birds fly high above the clouds when migrating and starlight appears to be enough to trigger the reaction in the molecules. In normal sight chemical messages are sent from the retina to visual processing centres within the central nervous system via ganglion cells. There are many of these ganglion cells in the birds eye and it may be they send the information bypassing any rods or cones. Studies on the retina show a reaction to the magnetic field when blue light is present but the activity has not been traced from the retina to a specific part of the brain yet which might determine if this sensitivity does manifest itself visually.
It is very difficult to imagine a sense we do not have.
Learning the migratory route and destination is vital to birds survival in many cases. Often the young bird will have to undertake the first migratory journey on its own, its parents having left earlier. These instinctive instructions for the journey are passed on from one generation to the next. The genetic instructions are quite broad, leading to a large designated destination zone which could be within a 200 mile radius. However, when returning, along with the hereditary instinct using the stars and sun to navigate the birds also have learnt the magnetic map and can return to the exact spot they left as a fledgling. Young birds in a planetarium will follow the stars if they are rotating correctly.
Peter is a chemist so his interest is in the chemical reactions of the radical pairs but he is part of a wider research group that also looks at this behaviour in bats and fish.
I also asked his thoughts on the human capacity to sense the magnetic field. Unfortunately, although we have cryptochromes in many of our cells we do not have the particular molecule Riboflavin which is the one activated by blue light to become magnetically sensitive. Whether we once had this molecule and lost it or birds evolved this molecule separate to our evolution is not understood but he did believe current research on human brain alpha wave activity in response to the magnetic field might throw up some interesting ideas to look at. A speculative approach to gaining sensitivity to the magnetic field may be by transplanting a tiny compass as used in a mobile phone onto the body, setting it to vibrate when pointing north. The body may ‘learn’ to recognise north in this way.
Listening to The Life Scientific with guest David Eagleman has shed further light on what might be possible as his research shows the human brain can be trained to receive input from alternative sources, for example learning to hear through the skin. He believes it will be perfectly possible for us to experience new senses in the future, including magnetoreception.
Work in Progress
I have been scouring the internet for tips on casting a concrete obelisk and getting an idea of the dimensions. I am thinking about using aerated concrete, for lightness but also to give an appearance of the texture of volcanic rock.
Chemical conversation tests for the video sculpture Belly of a Rock inspired by Italo Calvino The Spiral in The Complete Cosmicomics. “The water was a source of information, reliable and precise [ ] full of substances and sensations and stimuli”
I have been testing paper clay recipes and shapes for the video sculpture Belly of a Rock which will be somewhere between a rock and a mollusc.
Out of Studio
Visit to Richard Saltoun Gallery to see Haptic Vision a retrospective of artists Jo Bruton and Rosa Lee working in the 1980’s and 90’s creating paintings that encourage the eye to wander across a richly textured surface of optical illusions. “The necessity of ‘making’, of being within that space as a primary concern, where the Subject is nearby and woven into the repetitions and patterns of everyday life.” – Jo Bruton, 2022
Eternally Yours at Somerset House reflects upon the hope and healing which can be found in the memories and stories that everyday objects hold in our lives. The repair becomes a shared experience expanding the idea of bonding to include the emotional connection.
I really liked the DIY sensors and data gathering device created by Superflux. Re-imagining technology as a useful tool for communities to gather and share information on the environment, monitor local air pollution and be active in creating a just and equitable society.
New River Folk is the outcome of an Engine House Residency by Laura Copsey and Philip Crewe at the new Quentin Blake Centre for Illustration about to be developed at New River Head, Clerkenwell. This site was part of an artificial watercourse opened in 1613 to supply water to London at first through overground wooden pipes. When more pressure was needed a six-sail windmill pumped water from the site. After storm damage to the windmill in 1720 horses were harnessed to turn the wheel and power the pump. The round base of the windmill remains, and is the oldest construction of its kind in central London. The artists drew on local history around the site, creating an archeology expanding on the lives of Mole Catcher William ‘Mollitrappe’ Smythe, Well-Keeper Black Mary Woolaston and Tankard-Bearer Joan Starkey. They also collaborated with the river itself to create 16mm film imagery and recordings.
I was fascinated by the crystals that had formed on the bricks in the old windmill. The salt crystal growing experiment I set up while planning an exhibition proposal is still sitting in my studio – if it is still growing it is doing so very slowly, the initial growth was surprisingly fast.
Reimagining Joya is an exhibition at Thames-side Gallery inspired by the experiences and artistic responses of a group of artists who have all participated in Joya: Art + Ecology / AiR residency. The curators, Olga Suchanova, Tere Chad and Barbara Slavikova, have selected a body of works which explore the way we inhabit, survey, feel, and relate to the natural landscape and its living creatures.
Cornelia Parker at Tate Britain. Simple materials, deconstructed and presented immaculately. I was in awe of the invisible framing of her linen squares and wire grids where the objects appear held against the glass as if by magic. Many works are born in violence, condense violence into form or render it impotent. These include Bullet Drawings using lead from bullets melted down and drawn into wire; shotgun sawn off by criminals sawn up by police; handgun used by criminals precipitated to rust by science engineers. Gentler work included the back of button cards appearing as coded messages or star charts – something I was very familiar with as a child growing up in a village drapers shop.
Forest: Wake this Ground at The Arnolfini, Bristol showing works by Rodrigo Arteaga, Mark Garry, Alma Heikkilä, Eva Jospin, Jumana Manna, Zakiya Mckenzie, David Nash, Maria Nepomuceno, John Newling, Rose Nguyen, Ben Rivers, Ai Weiwei, and Hildegard Westerkamp.
Rodrigo Arteaga burned drawing series Monocultures and Fallen Tree documenting the radical change in the forest floor and threatened indigenous species.
John Newling extracts of soil form his own garden reveals a surprising diversity of minerals in the many colours of the balls and cores. The Night Books burning forests, made from pulped texts, coal dust and crushed charcoal worryingly notes that the work physically released carbon through the process of making. The vertical strata reminds me of the cliffs at Hartland Bay.
Ai Weiwei cast from the ancient and endangered Pequi Vinagreiro tree (found in the Bahian rainforest), reflect both the uprootedness of arboreal species and the displacement of people.
Ben Rivers film Look Then Below shot beneath the Mendip hills and ancient woodland in Somerset, imagines a dystopian but seductive future.
Eva Jospin Forêt Palatine, made from recycled cardboard, at once evokes folklore and decay. I liked the surface texture which in parts almost looked volcanic.
Paths of Resistance by Tracy Hill is a site-specific fabric installation in response to magnetic fields measured in the space at Arnolfini as part of the IMPACT 12 programme of events. The work explores the hidden energies that shape our experience of the world.