Electro-Magnetic String Resonators

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Chapter 1

Introduction

:

Temporal Perspectives

The chapters that follow hope to outline the paths of research committed

over the past 2 years. Beginning with studies into the various definitions and states

of time, we’ll then move on to the physiological effects of sound and its

connection to bioremediation. Deep Listening as a holistic practice and how sound

is intertwined with environmental health. Chapter 3 will then move on to the

forces of gravity and magnetism, which is the underlying genesis of the

instruments that were created.

Chapters 4 and 5 will dive into my ecological studies, beginning with

a report on the work of Viktor Schauberger, who made interesting strides in water,

energy and ecology. When working with any environmental practice, water is

eternally fundamental. Understanding natural cycles or processes can inform us as

to where can take technology and Schauberger viewed Nature as its own

technological system that could be observed and utilized for technological

innovation in symbiosis with the natural world.

From water we’ll move to my ongoing bioremediation research and

practices in Los Angeles. The remediative properties of fungi and how practices

can be incorporated locally through community building activation.

Time is perceived differently between organisms and even varies

significantly across different parts of the Universe. Space and time are interrelated

dimensions (often conceptualized together as spacetime in physics), but they are

not identical. Spacetime is a single, four-dimensional continuum where time acts as

the fourth dimension. This conceptualization helps in understanding the relativistic

effects where time is affected by movement through space and by the gravitational

pull of masses. Despite their connection, space and time exhibit distinct properties:

space is described through three dimensions, while time has only one.

The concept of time is often perceived through changes in the environment,

which can include the growth cycles of mycelium (the vegetative part of fungi), the

flow and phases of water, and the rhythms and frequencies of sound. Mycelium

can affect soil properties and plant growth cycles, influencing how we measure

time in an ecological context. Water, with its cycles and movements, impacts our

perception of time through natural rhythms such as tides and seasons. Sound,

through its vibrations and the way it’s processed by our auditory system, can alter

our perception of the passage of time and influence our physiological states by

triggering various brain and bodily responses.

The most common perception of time is linear, where events occur in a

sequential and irreversible order. This view is often associated with the “arrow of

time,” pointing from the past through the present and into the future. Some cultures

and philosophical traditions perceive time as cyclical, with events recurring in cycles.

This perspective often aligns with natural phenomena like seasons or cosmic cycles,

symbolizing the eternal return of certain events. According to Einstein’s theory of

relativity, time is not an absolute concept but is relative to the observer’s motion and

gravitational field. Time can dilate or contract depending on the speed and

gravitational force experienced by an observer. Biological organisms experience time

in a subjective manner, influenced by factors such as circadian rhythms and aging

processes. Biological time is linked to the perception of time intervals, such as

seconds, minutes, and hours. Our perception of time can vary based on

psychological factors, including attention, memory, and emotional states. Time may

seem to “fly” when we are engaged in enjoyable activities or “drag” during periods

of boredom or distress.

In quantum mechanics, time is treated as an operator rather than a simple

parameter. The nature of time at the quantum level is still an area of active research

and debate among physicists. This philosophical perspective suggests that past,

present, and future all exist simultaneously, and our perception of the flow of time

is an illusion. The entire spacetime continuum is viewed as a static “block” where

events are fixed. Some argue that only the present moment truly exists, and the past

and future are mental constructs. This viewpoint is associated with mindfulness

practices and the idea that being fully present is the key to understanding the nature

of time. Eternalism asserts that past, present, and future events all have equal

ontological status, while Presentism argues that only the present moment is real, and

the past and future are mere concepts.

Quite clearly, we can see that there are a variety of interpretations of time.

Whether viewed through the lens of physics, philosophy, biology, or culture, time

emerges not just as a mere measurement but as a profound element deeply

embedded in the fabric of reality. Each perspective offers unique insights that can

inform the others, suggesting that a truly comprehensive understanding of time

might come from integrating these diverse views into a cohesive framework.

Chapter 2

Psychoacoustics and Auditory Illusions

:

Physiological Modulation

“Sound is the conveyance through which we experience the temporal flow,

drawing us into the immediate moment with heightened awareness and a deeper

sense of place and time” (p. 29, P. Oliveros, Deep Listening).

“Sound brings one into the present moment, the now of consciousness, and can

transport us to past emotional states or imagined worlds, effectively altering our

perception of time passage” (p. 42 P. Oliveros, Deep Listening).

“Deep Listening is about making connections with the whole space/time

continuum of sound, encountering the vastness and complexities as much as

possible” (p. 24 P. Oliveros, Deep Listening).

“Deep listening involves not only auditory perception but also an integrative

physiological process that influences the neural, musculoskeletal, and

cardiovascular systems.” (Bartel, L., & Mosabbir, A. (2021). Possible Mechanisms

for the Effects of Sound Vibration on Human Health. Healthcare, 9(597)).

“Vibrational sound therapy as a form of bioremediation uses sound frequencies to

induce beneficial changes in cellular activities which can include promoting health

and recovery from illnesses.” (Bartel, L., & Mosabbir, A. (2021). Possible

Mechanisms for the Effects of Sound Vibration on Human Health. Healthcare,

9(597)).

“Low frequency sound stimulates blood circulation by affecting the temporal

patterns of blood flow through modulation of endothelial cell activity.” (Bartel, L.,

& Mosabbir, A. (2021). Possible Mechanisms for the Effects of Sound Vibration

on Human Health. Healthcare, 9(597)).

Of the many documents I researched, one was from 2023 titled,

“Deviations in Sound Waves Associated with Physiological and Psychological

States” which explores the complex interactions between sound waves and various

physiological and psychological states of human subjects within controlled

environments. It focuses on how deviations in sound waves can influence human6

physiological and psychological responses. The study suggests that sound waves do

not just passively exist in the environment but interact dynamically with subjects,

potentially influencing health and behavior. The experiments were conducted

using a sophisticated setup involving omnidirectional loudspeakers and various

sensory measurements like EEG (Electroencephalography), GSR (Galvanic Skin

Response), and HRV (Heart Rate Variability).

A summation of their findings indicates that Soundscapes affect ecological

dynamics and biological rhythms, potentially influencing ecosystem health and

species interactions through acoustic signals. Variations in sound frequencies can

manipulate the perception of time, suggesting that auditory cues could play a role

in psychological and cognitive processes. The concept of deep listening was

examined not only as an auditory practice but as a method to enhance emotional

and cognitive awareness. The study found that deep listening could improve

mental health outcomes by fostering a greater connection to one’s environment

and inner self. Sound frequencies were explored for their potential to aid in

environmental cleanup processes. The research indicated that certain frequencies

could enhance microbial activities that break down pollutants, offering a novel

method for ecological restoration.

The findings suggest potential therapeutic applications of sound in

managing various physiological and psychological conditions, including stress and

anxiety. It also underscores the potential of using sound-based methods in

environmental management and pollution control and concludes that sound waves

play a critical role not only in ecological systems but also in human health,

affecting both physiological and psychological states in measurable ways. The

research advocates for a broader application of sound in therapy, medicine, and

environmental conservation, highlighting its often-overlooked utility in both health

and ecological contexts.

“Environmental soundscapes significantly affect biological rhythms and can induce

changes in organism behavior and physiological states, providing critical insights

into ecological balance and habitat health.” (p. 66, Oomen, P., Farran, B. M.,

Gentile, D., et al. (2023). Deviations in Sound Waves Associated with Physiological and

Psychological States. Journal of Sound and Vibration).

“Acoustic environments act not only as passive recipients but also as active

modifiers of ecological behavior, suggesting a symbiotic interaction between

soundscapes and living organisms.” (p. 116, Oomen, P., Farran, B. M., Gentile, D.,

et al. (2023). Deviations in Sound Waves Associated with Physiological and Psychological

States. Journal of Sound and Vibration)7

“Changes in sound wave frequencies can affect the body’s internal clock,

suggesting potential applications in treating circadian rhythm disorders through

auditory stimuli.” (p. 72, Oomen, P., Farran, B. M., Gentile, D., et al. (2023).

Deviations in Sound Waves Associated with Physiological and Psychological States. Journal of

Sound and Vibration).

The human ability to locate sound sources in space demonstrates the

intricate workings of psychoacoustics. Binaural hearing involves processing

differences in time, intensity, and phase between sounds reaching each ear,

enhancing our spatial awareness in the acoustic environment. Psychoacoustics

contributes to the assessment and rehabilitation of hearing disorders, improving

intervention strategies. These principles also inform the design of sound systems

for optimal listening experiences and audio compression algorithms for digital

communication. The study of how our brains process sound information

contributes to broader research in cognitive psychology and neuroscience.

“Understanding the psychoacoustics of spatial hearing is crucial for effectively

manipulating temporal perception through sound. Different sound frequencies and

dynamics can influence the listener’s perception of movement and orientation,

contributing to a temporal illusion of space.” (Chapter One, Psychoacoustics and

Applications, p. 25)

Under these terms is how I approach sonic practice. It is an experiential

practice that has the ability to modify one’s physiological state in real time, creating

a feedback loop of sensorial processing. By amplifying the electro-magnetic string

resonators and using combinations of sine waves to generate the magnetic field of

the exciters, the signal then flows back through another set of electro-magnets, and

sound emits from speakers, which then influences the instruments output by

creating a controllable feedback loop through the air.

The feedback loop is essential to this practice as the participant becomes a

part of the cycle. Engaging with the flow of sonic action dictates the change of

events, intuition acting on instantaneous receptions. Through this, temporal

perception dissipates, and the experience becomes fluid.

“Musical vibrations also affect other cells types in several organisms… Effects on

growth, apoptosis, immune system, protein activities in animal, plant and bacterial

cells have been shown.” (Some Effects of Sound and Music on Organisms and

Cells: A Review. Annual Research & Review in Biology, 32(2), 1-12).

“Sound waves can enhance plant immunity against pathogens” and influence

“plant growth and development.” (Some Effects of Sound and Music on8

Organisms and Cells: A Review. Annual Research & Review in Biology, 32(2), 1-

12).

“In Escherichia coli, audible sound increases the colony forming under the normal

condition and enhance the inhibitory effect of osmotic stress.” (Some Effects of

Sound and Music on Organisms and Cells: A Review. Annual Research & Review

in Biology, 32(2), 1-12).

“Music therapy induced alterations in natural killer cell count and function.” (Some

Effects of Sound and Music on Organisms and Cells: A Review. Annual Research

& Review in Biology, 32(2), 1-12).9

Chapter 3

Gravitational Waves & Electromagnetism

Gravity and magnetism are distinct forces in physics, each governed by its

own set of principles and equations. While they share some similarities, they are

fundamentally different phenomena.

Gravitational wave theory represents a groundbreaking domain in physics,

dealing with the ripples in spacetime caused by the acceleration of massive objects.

These waves, first predicted by Albert Einstein, are particularly significant in

events involving intense gravitational interactions, such as merging black holes or

neutron stars. By providing insights into the properties of massive objects, the

nature of spacetime, and the dynamics of extreme astrophysical events,

gravitational waves are revolutionizing our understanding of the cosmos.

Einstein formulated the general theory of relativity in 1916, which predicted

the existence of gravitational waves. This theory states that massive objects cause

spacetime to curve around them, and when these objects accelerate, they produce

gravitational waves that propagate at the speed of light. Gravitational waves are

distinguished by their ability to stretch and compress spacetime as they travel

through it. These waves carry energy away from their source, causing distant

objects to oscillate in response to their passage. The behavior of gravitational

waves is described by the linearized form of Einstein’s field equations, leading to a

wave equation that predicts how these waves propagate through spacetime.

Gravitational waves are most significant in binary systems, where two massive

objects orbit each other. The strongest waves are expected from events like the

merger of black holes or neutron stars. These waves can be produced by various

astrophysical events, including the in-spiral and merger of binary black holes,

binary neutron stars, supernovae, and asymmetrically collapsing massive objects.

The first direct detection of gravitational waves occurred on September 14,

2015, by the Laser Interferometer Gravitational-Wave Observatory (LIGO),

confirming Einstein’s theory. This detection, resulting from the merger of two

black holes, marked a significant milestone in astrophysics.

Gravity interacts with temporal perception on Earth primarily through the

phenomenon of gravitational time dilation. Gravitational time dilation occurs

because gravity warps the fabric of spacetime, affecting the passage of time in

regions with different gravitational potentials.

According to general relativity, time passes more slowly in regions of

stronger gravitational fields compared to regions of weaker gravitational fields.

This means that clocks closer to massive objects like the Earth tick more slowly10

relative to clocks farther away. While gravitational time dilation affects the physical

passage of time, its direct impact on human psychological perception of time is

less clear. Human perception of time is influenced by a variety of factors, including

cognitive processes, emotions, and environmental stimuli. the experience of time

may indirectly be influenced by gravitational effects, such as the gravitational time

dilation experienced by astronauts in space, which can lead to a subjective sense of

time passing differently under certain conditions.

“Our sense of extension in space can be traced to the orderly pattern in which

receptors sample the retinal image, but there is no equivalent orderly arrangement

of receptors designed to register temporal patterns. This makes space perception

and time perception different from the outset, and renders mysterious the neural

mechanisms by which we sense the time course of events…

Recent experiments show that synchronous events can appear to an

observer to occur at different times. Neural processing time delays are offered as

an explanation of these temporal illusions…

In the neural processing delay approach, which we call the ‘brain time’

theory, time is treated quite differently from other sensory attributes… The

alternative, called the ‘event time’ theory, posits that we may have specialized

neural systems that encode the relative time of external events.” (Time perception-

Brain time or event time?, p.1).

“Temporal processing is tightly coupled with other sensory modalities and is

influenced by physiological states, potentially involving interactions with

gravitational and electromagnetic fields.” (Timing and Time Perception, Ch. 2, p.

32).

“The perception of time can significantly differ under various physiological

conditions and in response to natural or experimental modifications in

environmental stimuli, including changes in electromagnetic fields.” (Timing and

Time Perception, Ch. 13, p. 295).

Magnetism, on the other hand, is a force associated with certain materials,

particularly those containing atoms with magnetic moments. These materials can

be attracted or repelled by a magnetic field. The fundamental unit of magnetism is

the magnetic dipole moment, which arises from the motion of charged particles

within atoms. It can be attractive or repulsive, depending on the orientation of the

magnetic dipoles. Magnetism is effective over shorter distances and is more

noticeable in materials with aligned magnetic domains.

Magnetism can affect human physiology in several well-documented ways,

primarily through the interaction of magnetic fields with biological tissues.11

Magnetic fields interact with biological systems in diverse ways, some of which are

beneficial and harnessed in medical technology. Some animals have the ability to

detect magnetic fields (magnetoreception), which they use for orientation and

navigation.

The electromagnets that generate the wave fields on my instruments are

controlled via audio signals, rather than a fixed voltage, sent from a stand-alone

microprocessor called the Daisy Seed by Electro-smith. A compact and highly

versatile tool that is customized to produce a stereo audio signal comprised of sine

waves in an FM synthesis configuration. The signal is scaled so that the waves can

be tuned below the audible range up to as far as the digital processor can go, which

induces aliasing and odd, fragmented difference tones. This allows for resonances

of the string that can scan up and down the natural harmonic series. When the

oscillators are in the audible range I’m able to pin-point and sustain harmonics

perpetually. The strings are amplified by 2 smaller electromagnetic pick-ups made

from recycled bullet shells. The amplification stage, when used with a mixer with

auxiliary sends and returns, allows the instruments to be fed back into themselves

in various ways. The magnetic fields of fluctuating frequencies and amplitudes

represents how forces can contain and distribute information or energy through

space and time, in this case on a string.12

Gravity Wave Fields are incredibly complex, so I experimented with

generating some images using AI to attempt some different iterations.131415

Chapter 4

Natural Technologies

:

Viktor Schauberger

Viktor Schauberger was an Austrian forester and naturalist born in 1885 and

is celebrated for his revolutionary theories and pioneering principles that have

challenged and enriched conventional approaches in ecology, engineering, and

sustainable development. His deep connection with nature and keen observation

of its processes led him to develop groundbreaking theories and technologies,

deeply rooted in a holistic understanding of natural systems. Schauberger’s work,

grounded in observations of water, forests, and ecosystems, provides invaluable

insights into sustainable practices and biomimetic design, making his legacy

particularly relevant in contemporary environmental contexts.

Schauberger’s life was characterized by an intense connection to and

understanding of nature. Contrary to prevailing scientific paradigms of his time,

Schauberger emphasized the significance of working with, rather than against,

natural processes.

“Nature’s rhythms are not random; they are the harmonious interactions between

electromagnetic fields and the gravitational forces of Earth, orchestrating a

symphony of temporal patterns that affect biological and ecological processes.”

(Living Energies, p. 74).

Central to Schauberger’s theories is the concept of implosion, a process

involving inward movement or compression, unlike explosion which is outward

and destructive. Schauberger applied this concept to various technologies,

proposing designs that harness implosive forces for energy production and

transportation. His implosion-based devices, like the “Repulsine”, were designed to

mimic natural processes, aiming to minimize environmental impact.

“The natural cycle of water and its energy dynamics are crucial for maintaining the

physiological balance within ecosystems, subtly influencing the temporal

perception of all living organisms.” (Living Energies, p. 108).

Schauberger was a strong advocate of biomimicry, the practice of emulating

natural systems and processes to address human challenges. He believed that

nature holds the keys to sustainable technologies and designs, drawing inspiration

from natural phenomena such as vortex motion and the spiral forms in living16

organisms. His approach to biomimetic design has informed innovative

technologies in energy generation, water purification, and agriculture.

Schauberger proposed that water possesses a “living energy” that sustains

life and regulates ecological processes. He emphasized the importance of

preserving water’s natural vitality through gentle handling and structured flow. His

observations led to the development of vortex-based technologies aimed at

revitalizing and purifying water without chemical intervention. While some view

his theories as speculative, others regard them as ahead of their time and worthy of

further exploration. His concepts have been applied across various fields, inspiring

innovative approaches to resource management and design.

“Water’s flow patterns and its interactions with gravity not only sculpt the physical

landscape but also shape the temporal landscapes we perceive, directly impacting

our physiological experiences.” (The Water Wizard, p. 107).

Schauberger’s ecological insights have influenced ecologists and

environmentalists seeking holistic approaches to ecosystem management and

restoration. His emphasis on the interconnectedness of natural systems and the

importance of respecting ecological balance aligns with contemporary efforts to

promote biodiversity and sustainability.

“Soil fertility is not static but is a temporal phenomenon influenced by the

electromagnetic properties of the earth and the cosmic interplay of gravitational

forces, which in turn affect plant growth and ecological stability.” (The Fertile

Earth, p. 47).

“By understanding the alchemical transformations water undergoes in nature,

influenced by electromagnetic and gravitational fields, we can better understand

the subtle nuances of temporal changes in our environment.” (The Water Wizard,

p. 108).17

Chapter 5

Mycelium & Bioremediation in Los Angeles

:

Explorations of Natural Time Processes

I first learned of Bioremediation from the Soundscape Ecologist Bernie

Krause. I’d also been aware of John Cage’s interest in Mycology and the work of

Dennis & Terence Mckenna, Maria Sabina, John Sinclair until ultimately learning of

Paul Stamets in 2015. He has been a leader in Mycological research for decades and

from his literature is where I learned about Mycoremediation and Mycofiltration.

Using information from his studies, and with some additional DIY research online,

I began the primary stages of making a Mycofilter in December 2023. I began with

inoculating a substrate with three different species of fungi, Stropharia rugosa annulat,

or Garden Giants, and Pleurotus ostreatus and Pleurotus ulmarius, two species of Oyster

Mushroom. The substrate was then mixed into a burlap sack of fermented hay and

by February 2024 the entire burlap had been completely inoculated. Initially I had

the intention of experimenting with this technology on CalArts campus, however,

since January 2024 I have been a member of the Eco-social Art organism known as

Untune, led by artist Helga Fassonaki and located on a residential property in

Highland Park, Los Angeles. On that property we are maintaining a garden of Native

plant species and I have constructed and installed a Myco-filtration system that

collects drainage from a utility sink and is exposed to the elements so that it can

retain rain moisture as well.

Water contamination in Los Angeles, like in many urban areas, can arise from

various sources and contaminants. Rainwater runoff from streets, parking lots, and

other urban surfaces can carry pollutants such as oil, heavy metals, pesticides, and

debris into water bodies. Some industrial activities may release contaminants into

water sources. These contaminants can include chemicals, heavy metals, and other

pollutants. In areas surrounding Los Angeles with agricultural activities, runoff from

fields may carry pesticides, fertilizers, and sediment into waterways. Although

wastewater treatment plants treat sewage and other waste, there may be instances

where treated effluent still contains residual contaminants. Contamination of

underground aquifers can occur due to industrial spills, leaking underground storage

tanks, or improper disposal of hazardous materials. Some areas may have naturally

occurring contaminants in their water sources, such as high levels of minerals or

elements like arsenic.18

Aging water infrastructure can contribute to water contamination. For

example, deteriorating pipes may allow contaminants to enter the water supply.

Bacteria, viruses, and other microorganisms can contaminate water sources, posing

risks to public health. This can be a concern in areas with inadequate sanitation or

issues with water treatment.

The management of runoff in Los Angeles is a critical aspect of urban

planning and environmental stewardship due to the region’s complex water

infrastructure and susceptibility to droughts and flash floods. Runoff, which

includes rainwater or water from irrigation, can carry pollutants and contribute to

water quality issues if not properly managed. Los Angeles, like many other cities, has

a Stormwater Management Program to address runoff issues. The program aims to

reduce pollution in stormwater runoff and protect water quality. It includes

measures such as public education, regulatory compliance, and infrastructure

improvements. Low Impact Development practices focus on managing stormwater

at its source. Examples include permeable pavement, green roofs, rain gardens, and

other measures designed to mimic natural hydrological processes and reduce runoff.

City planners and developers in Los Angeles may incorporate sustainable design

principles to minimize impervious surfaces, increase green spaces, and implement

features that help manage stormwater on-site. Some areas use retention and

detention basins to manage stormwater. Retention basins hold water permanently,

while detention basins temporarily detain stormwater before slowly releasing it to

prevent downstream flooding. Los Angeles has an extensive network of concrete-

lined flood control channels designed to quickly move stormwater away from urban

areas to prevent flooding. However, these channels can contribute to water pollution

by quickly transporting pollutants to rivers and coastal areas. There are regulations

in place to control stormwater runoff from construction sites and industrial facilities.

The National Pollutant Discharge Elimination System (NPDES) permit program,

administered by the EPA and the State Water Resources Control Board, sets

guidelines for controlling stormwater runoff.

Mycelium, the vegetative part of fungi, has a porous structure that can filter

water. Mycorrhizal fungi form symbiotic relationships with plant roots, enhancing

nutrient uptake. Inoculating degraded soils with mycorrhizae can improve plant

growth, increase soil stability, and aid in the establishment of vegetation in barren

areas. Using fungal mycelium mats in constructed wetlands or filtration systems can

help remove pollutants and improve water quality. Certain fungi have the ability to

break down organic pollutants in water. Introducing these fungi to polluted water

bodies can aid in the natural breakdown of contaminants. Implementing

mycofiltration systems in urban areas can help manage stormwater runoff. Mycelium

acts as a natural filter, capturing pollutants and preventing them from entering

waterways. Certain fungi, known as hyperaccumulators, have the ability to absorb

and accumulate heavy metals from contaminated soils. Integrating these fungi into19

soil remediation strategies can help detoxify polluted areas. Fungi, along with

bacteria and algae, can form biological soil crusts that stabilize soil, prevent erosion,

and improve water retention. These crusts are particularly valuable in arid regions

like Los Angeles. Fungal mycelial networks can act as natural connectors in

ecosystems, facilitating the establishment of plant communities. This is particularly

useful in restoring habitats in urban areas.

Incorporating mycorrhizal fungi into urban greening initiatives can enhance

the resilience of planted trees and vegetation in city parks and green spaces.

Community-based mushroom cultivation projects can turn organic waste into

valuable resources. By educating communities about mycology and sustainable

practices, there can be a dual benefit of waste reduction and local economic

development. Engaging the community through workshops and outreach programs

can raise awareness about the importance of fungi in ecological restoration and

water management.

This has been the fundamental purpose of my work with Untune in Los

Angeles. Reading groups discussing distribution, waste management, plant

variability and water treatment. Communal meals sourced from local distributors

and personal gardens. Art explorations utilizing dyes and charcoals from different

organic materials. Gardening practices and soil treatment. All aspects of what the

organization has begun to provide for its participants.

Below are few images from a larger collection of documentation of the

Untune property, garden and mycofiltration system.2021222325

Conclusion

Unraveling the Temporal Threads

The philosophical underpinnings of my work reflect a deep commitment to

understanding the intrinsic connections between sound, time, and existence. By

adopting a holistic approach that values subversion and reflection, this documents

my on-going attempts to challenge the prevailing norms of technological and

ecological interaction. Artists have the ability to experiment with models where

innovation coexists with the natural world rather than exploits it.

Comprehension of the numerical relationships in nature and the timescale of

natural processes are fundamental in the remediation of both our natural

environment as well as the human psyche. The path for understanding lies in

experimental practices that subvert the inherited structures of society, such as

technological and ecological regulations that hinder our progress. Over the course

of the 20th century, there were countless practitioners of science and engineering

who sought alternative sources with which to liberate humanity’s destructive

addiction to “explosion energies” which emit gases into the air. All vanished from

the earth before fulfilling their studies and history has let them slip into obscurity.

Experience is the foundation to understanding and therefore the state of the

whole relies on the awareness and depth of the individual. Through my various

practices, my goal as an artist is to pursue this exploration into natural and alternative

technologies, allowing time to be dictated by the system or process, with the

intention of realizing the result back into the physical and /or acoustic form. To be

open to non-societal time scales as a means of creating work that has minimal

environmental impact and maximum critical affect in the form of message.

As we travel through this stage of technological transformation, it is crucial

that we reassess our relationship with nature and our methods of technological

engagement. I urge future researchers and practitioners to explore the vast

possibilities of sound not only as a scientific tool but also as a medium for profound

ecological and personal transformation.

Looking forward, the implications of this research extend beyond the

academic and into the practical realms of environmental science and mental health.

I envision a future where sound therapy and sound-based environmental

remediation become mainstream practices, integrated into public health strategies

and ecological management plans. The potential for these technologies to improve26

quality of life and restore ecological systems offers a hopeful outlook on the

challenges of modernity.27

Bibliography

– Exbrayat, J.-M., & Brun, C. (2019). Some Effects of Sound and Music on

Organisms and Cells: A Review. Annual Research & Review in Biology,

32(2), 1-12

– Timing and Time Perception: Procedures, Measures, and Applications

– Psychology for Musicians

– Time perception: Brain time or event time?

– The Psychodynamics of the Numbers

– The Fertile Earth, Viktor Schauberger

– The Water Wizard, Calum Coates

– Living Energies, Viktor Schauberger

– Nature as Teacher, Viktor Schauberger

– Deep Listening, Pauline Oliveros

– Bartel, L., & Mosabbir, A. (2021). Possible Mechanisms for the Effects of

Sound Vibration on Human Health. Healthcare, 9(597), 1-35. DOI:

10.3390/healthcare9050597

– Oomen, P., Farran, B. M., Gentile, D., et al. (2023). Deviations in Sound Waves

Associated with Physiological and Psychological States. Journal of Sound and

Vibration.

– https://thewaternetwork.com/article-FfV/mycofiltration-harnessing-fungi-

to-clean-polluted-water-0oIXXU4D4-DVl7Gvs0jZiw