I’m definitely so grateful to Beatport and the 2025 Global Remix Challenge for the opportunity to remix Madonna’s “Ray Of Light” with the original Stems! What an iconic and Grammy winning song she made with William Orbit from 1998. It is as dazzling as ever.
My remix is a guitar laden dance pop version. I added a lot of guitar to it! And I definitely kept the original vocal, with some processing and some sampling.
*THIS PAPER IS UNDERGOING REVISION – EXCERPTS BELOW*
Abstract
This design paper introduces a fully biodegradable, glucose-based bioplastic paste designed to replace conventional disposable plastics used in fast food containers, dinnerware, and single-use packaging. Composed of tunable natural ingredients, the material cures in molds to form durable, compostable objects that degrade safely in soil, water, or microbial environments. Its edible profile makes it not only harmless but potentially palatable to wildlife, ensuring ecological reintegration without residue. An injectable version is in development. By aligning material performance with multispecies safety and regenerative design, this bioplastic offers a scalable alternative to petroleum-derived disposables, since oil is a lubricant, possibly for Earth’s tectonic plates and other important innate roles in geology. (1)
Figure 3: This Copilot illustration says it all – GMXC is safe for wildlife.
Figure 4: Palm Husks photo by Studio Shangri-La Multimedia
Conclusion
GMXC is not presented as a competitor to traditional plastics but as an ethos of necessary replacement for many companies, as an addition to the growing constellation of bioplastic solutions that seek to further harmonize material use with ecological integrity. Its modularity, plant-derived logic, and wildlife-safe profile offer a regenerative pathway for single-use packaging, especially in food systems where disposability often clashes with sustainability. Bioplastics have laid important ground, and GMXC contributes to and draws attention to the wealth of methods that deserve collective usage. With a broader evolutionary lens, even microplastics— however problematic — have played a role in shaping our environmental awareness and responsibility. They have catalyzed an overall more deliberate design ethos, a return that guides us towards better life on Earth, and toward biological resilience and responsible material stewardship in extraterrestrial environments. GMXC is a product and a gesture in that direction that is tuned to regeneration and evolution.
A simple eco-friendlier modification to a popular utensil, these coffee stirrers are made of more sustainable bamboo and the pack of 25 comes in a cloth bag. They will last a while with reuse. Larger orders are available for restaurants. It’s more than a product – it’s an ethos.
“‘The Promise’ is a beautiful, medium-sized photographic artwork, a giclée print that captures the essence of nature’s potential. Rendered in vibrant color, this piece combines digital techniques with traditional artistic elements, resulting in a contemporary artwork with a pop art feel. The artist uses canvas, paper, glass and metal elements in the finished artwork.
At its heart, ‘The Promise’ is a symbolic and literal representation of life and growth. The central image, an acorn, embodies the promise of prosperity and abundance. It speaks to the potential within every seed, reflecting themes of wealth and the natural world’s enduring cycles. The artwork subtly blends symbolism, conceptual art, and futurism. It is a reminder of life’s inherent potential, ready to transform any room with its hopeful message. And a reminder that it’s easy to be a steward of the land – plant an acorn!”
Today’s SS news is that the specialty store has been reactivated! Currently there are two products available, and they both celebrate the amazing healing powers of adaptogens. They’re also both edible technically, an indication of wholesome and safe ingredients. I’m proud to transparently present these products of high quality and efficacy.
Immortal Full Body Exfoliant + Moisturizer
Shangri-La Green Immortal
Ingredients: Ancient Tree Seed Serum (bristlecone pine – varies) | Organic Flax Oil | Organic Coconut MCT Oil | Trehalose | D-Ribose | Modified Citrus Pectin | Vegan Collagen | High Absorption Magnesium Glycerophosphate
3 oz, Full body, Non-toxic/Edible, Long lasting with refrigeration
Instructions: Stir before use. Apply to entire body as desired, then let sit for 10-20 minutes. Shower off without using soap, and then air dry.
Awasis, named for the actual exoplanet and the Cree word for ‘child’ or ‘sacred gift’ is an epic science fiction adventure for all ages. The illustrated story encompasses the cosmos and beyond, with humor and memorable characters, and meaningful messages for a better world. Awasis tells the tale of how humanity becomes an interstellar species and joins the intergalactic community. There are real places in space and astronomical phenomena featured, as well as different Earth cultures, and points in history.
432 Guitar is an album is 432 hz tuning, associated with resonance with the Earth’s electromagnetic field and is considered a healing or medicinal frequency. The album is mostly classical guitar, with 2 electric guitar versions of well known favorites – Clair de Lune and What A Wonderful World. This is the first full length solo guitar album on OCTAVES.
Buy the digital download from OCTAVES:
This payment button was removed. Please contact the website owner.
At first glance, issues such as cancer may appear to stem from countless complex factors. But in truth, many cases trace back to a few root causes and thus, actionable solutions. Reforming industry to eliminate known carcinogens is not optional, it’s essential. From the toxicity of fossil fuel exhaust to the warning labels on furniture, and consumption of alcoholic beverages — these exposures are avoidable.
In medicine, we now possess enough non-invasive technologies and ancestral knowledge to enter a body-respectful era, one in which invasive techniques that ‘attack’ and confuse the body, provoking immune responses against self, become obsolete. What’s needed is a cultural and philosophical shift: toward sustaining wellness, fostering regeneration, and trusting the healing intelligence of the body, an organism more extraordinary with each passing day.
There are far more profitable and life-affirming ways to celebrate humanity and expand the capabilities of our civilization that are in harmony with Earth, and beyond.
Studio Shangri-La – Dynamic Earth
Reforming Industry: Listening to Earth’s Design
Industry must evolve for both efficiency and the integrity of public health. Petroleum, for example, is more than a fuel source; it is the Earth’s tectonic lubricant, stabilizing geologic movement deep below the surface. Burning it disrupts that role and releases carcinogenic compounds into the atmosphere. The Earth offers a clue: what bubbles up naturally—like surface seeps or biogenic oils—may be used with care, but extraction beyond that threshold violates ecological logic and equilibrium.
This principle extends across sectors. Alcohol, long normalized in social and commercial contexts, has been classified as a Group 1 carcinogen by the International Agency for Research on Cancer—the same category as asbestos and tobacco. Benzene, once widely used in solvents and industrial processes, is another known carcinogen still present in some manufacturing environments. These substances are not inherently harmful within their roles in nature. However, when the benzene ring for example is chemically isolated it becomes volatile, toxic, and environmentally disruptive.
Removing known carcinogens from food, beverages, cosmetics, construction materials, and industrial workflows is foundational. And this can be avoided at step one, by design. The Earth signals what to use and what to avoid through its chemistry, cycles, and effects. Best practice means listening. Collaboration with Earth science is not a new method, but one that can be re-emphasized and further developed with synergistic innovation.
Studio Shangri-La – Liberty Of Sight
Medicine: Calling Off the Attack
Modern medicine must evolve beyond its warlike metaphors of battles, invasions, and eradications and into a paradigm of partnership. The body is not an enemy to be subdued, but the life of us, a dynamic conscious system capable of extraordinary feats when met with patience, understanding, and deliberate evolution. Non-invasive approaches can be foundational to deep wellness and also spirituality. They honor the body’s capacity to heal, adapt, and regenerate without provoking confusion or self-directed immune responses.
A few non-invasive approaches include light therapies, targeted herbalism sonic interventions, lifestyle modifications and hypnotherapy.
Even substances often branded as unsavory – such as urea, mucus, and bile – have important functions and valuable compounds. They are part of the body’s intricate signaling and detoxification systems. To dismiss them as gross is to misunderstand the rich language of physiology. Every component, every cell type, every feedback loop has purpose. Medicine must learn to listen and respect, not override.
This shift is clinical and cultural. It calls for reverence for the healing temple of the body, whose complexity and resilience grow more extraordinary along the history of evolution with each passing day. Consider this – that ‘cancer’ cells are immortal cells, perhaps agents of survival misunderstood and unduly provoked.
Studio Shangri-La – Triple Point
Philosophy: Rewriting the Memes of Health
The heart of the reframe is the convergence of language, biology and cultural imagination. The ideas we hold about the body, ourselves — functions, failures and successes, worth — are shaped by cultural memes, many of which are overdue for revision. Health has been framed in terms of control, correction, and conquest. Yet, our bodies are not battlegrounds — we are living learning systems, of the Earth and of nature, inherently intelligent throughout in complexity and design.
Science continues to reveal the layered elegance of physiology and existing ingenuity of regeneration, functions to be better understood, and with a measure of appropriate awe with our amazing emergent intelligence. The shift proposed now is toward patience, respect and regeneration, toward recognizing ourselves as custodial creators, capable of extraordinary adaptation.
Words and programming matter. The language we use programs our perception and shapes our interventions. We must choose the language and constructive behaviors supporting physiology. Health is not just the absence of disease—it is coherence, resilience, and relationship, to the inner self and great cosmos. Perhaps humans are already immortal or could be as desired, just misguided along genetically embedded ideologies.
Lastly, this is not just about reform, but about remembering — Remembering that the body is intelligent, that Earth is communicative, and that our technologies can be stewards.
The Important Shift to Human & Plant-Based Pharma Architecting regenerative medicine through ecological intelligence and modular science
Opening Vision
Pharmaceutical science is evolving and it must. The continued use of animal-derived antibodies and extractive compound sourcing poses not only ethical concerns, but significant safety risks to human health and ecological integrity. Fortunately, a better path is already here: one rooted in human-relevant models and plant-based expression systems.
This shift isn’t radical at this point; it’s responsible. As Buckminster Fuller taught us: “You never change things by fighting the existing reality. To change something, build a new model that makes the existing model obsolete.” That model is already taking root in the lab, in the field, and in the hearts of those who believe medicine should be cure, and heal more than just the patient.
The Problem with Status Quo Pharma
Traditional pharmaceutical development often relies on animal-derived antibodies and compounds extracted from vulnerable ecosystems. These methods raise serious concerns:
Ethical: Animal testing and harvesting practices violate principles of humane treatment and sentient life.
Ecological: Overharvesting disrupts biodiversity and depletes regenerative cycles.
Scientific: ‘Animal models’ frequently fail to predict human outcomes, leading to inefficiencies and risks that may fuel the conditions they seek to treat.
Hazardous: To cause harm or disruption to animal populations and ecosystems can be quite dangerous, such as causing disease and volatility.
The system is plainly outdated and misaligned with the realities of human biology and planetary boundaries.
[Voluntary] Human-Based Antibodies: A Safer, Smarter Path
Human-relevant antibody platforms that are absolutely respectful of the source, offer a transformative alternative. Technologies like recombinant human antibodies, phage display, and synthetic scaffolds bypass the need for animal immunization, delivering:
Greater precision in targeting human-specific antigens
Reduced immunogenicity and adverse reactions
Scalable production in microbial or plant-based systems
These platforms reflect a deeper trust in human biology—designing with it, not against it.
Sample from Stem Cell Science shop
Plant-Based Compounds: Ancient Wisdom Meets Modern Science
Adaptogens are systemic allies. These plant-derived compounds support the body’s ability to adapt to stress, regulate immune responses, and maintain homeostasis. Unlike many pharmaceuticals that target isolated symptoms, adaptogens work holistically, often interacting with multiple pathways to restore balance.
Among many choices in the medicinal garden, some of the most effective adaptogens come from plants that have thrived in extreme environments. Here are some interesting examples:
Quaking aspen: Withstands freezing temperatures, encoding anti-inflammatory and protective compounds.
Sequoia: A symbol of longevity and resilience, with bark and leaf chemistry that resists pathogens and decay.
These plants are survivors and basically immortal — they teach us with their wisdom. Their biochemistry reflects strategies for endurance, regeneration, and ecological harmony.
Sustainable Cultivation: A Modular Approach to Plant-Based Pharma
What makes this shift truly scalable is the ability to cultivate or clone protective compounds from small samples. Using seed material or tissue cultures, researchers can isolate key proteins and adaptogenic molecules—then propagate them in modular, non-extractive lab environments. This minimizes ecological disruption while maximizing accessibility.
For instance, magnesium-binding proteins from sprouts or drought-adapted resins from creosote can be cloned using open-source plant DNA kits and expressed in microbial or plant-based systems. These workflows are efficient, ethical, and aligned with regenerative design principles.
This transcending haphazard interference to attain cultivated stewardship. It trusts the intelligence of the plant, the adaptability of the body, and the ingenuity of modular science.
Peace For The Land
Peace For The Land
Peace For The Land
Peace For The Land
Systems-Level Shift
This isn’t just a technical upgrade—it’s a philosophical one. It reflects a broader movement toward:
Open innovation: Sharing protocols, data, and designs to accelerate collective progress.
Ecological realism: Designing with planetary boundaries and microbial agency in mind.
Modular scalability: Building systems that can adapt across contexts without compromising integrity.
By integrating human-relevant antibodies and plant-based compounds into regenerative workflows, we’re not just improving medicine—we’re reimagining its foundations.
Closing Invitation
The shift to human and plant-based pharma is already underway—but it needs architects, stewards, and collaborators. Whether you’re a researcher, designer, funder, or policymaker, the invitation is clear: help build the model that makes the old one obsolete.
Medicine should not just treat—it should heal. And healing begins with alignment: between body and biosphere, between science and stewardship.
Author: Sarah is an interdisciplinary researcher, systems designer, and composer whose work bridges environmental engineering, agency of lifeforms, and regenerative design. She develops modular lab protocols and open-source frameworks and designs that honor ecological intelligence and planetary health.
Recent Studio Shangri-La photography artworks include: Cloudbloom series, Shades Of Green, Out To Sea At Night, Night Music and other previously unpublished nature portraits, The Catbird, Flight Deck, Smoketree Silhouette and Bride’s Feathers.
Other recent works also include symbolist “Carbon Based” and Cubist style “Cool Droplets Colorblock I & II.” In the mixed media category, there is the upcycled and whimsical parallelogram, SHIFT, and the large scale, backlit “Emblems Of Imagination.
Please also keep an eye on the TurningArt and SAATCHI Art catalogs for new art. “Daisy Panel” was recently featured on the SAATCHI Art curator’s list.
In the publishing department, the string quartet “Changing Skies” score became available in July. It’s a modern yet traditional string quartet that is based on tonal clouds, given the topic of different types of clouds, and planetary dynamics, and their majesty.
With OCTAVES Music releases, the summer season saw the release of the Artemis Amenti “Fortune” album and the new Sarah Ikerd “432 Guitar,”respectively alt pop and classical albums.
For the upcoming Grammy season, OCTAVES Music has 3 entries in different genres and, happily, this is the second year of participation in this iconic celebration of music.
In an era of escalating demand for critical minerals, this paper proposes a significant paradigm shift: A biogeologic approach to mineral synthesis that follows the Earth’s natural rock cycle, augmented by microbial catalysts and regenerative design. Rather than extracting minerals prematurely—often at great ecological and human cost, this case study of biosynthetic lithium, sodium and magnesium production explores how lithogenic processes can be accelerated and guided through microbial interventions, enabling the formation of useful materials guided by the templates of natural planetary rhythms. (1)
In using battery materials lithium, sodium and magnesium as focal elements, this multitiered clay matrix design examines the feasibility of synthesizing and refining battery grade minerals by mimicking sedimentary and hydrothermal pathways. This is accelerated by microbial agents capable of selective ion transport, carbonate precipitation, and clay formation. This approach reframes lithium not as a scarcity of extractive mining, but as a mineral that could be cultivated through modular, surface-compatible, biologically informed process. In other words, by non-toxic mineral farming. For the long term, lithium cultivation is not recommended. (2) (3)
The Earth’s difficulty in yielding certain minerals and their toxicity may reflect a natural boundary, an ecological signal that some substances are not yet ready for use. By respecting these boundaries of the rock cycle, biogeologic synthesis offers a new non-extractive, regenerative ethic for infrastructure, energy, and material science: one that is sustainable, and quite symbiotic. The clay matrix is the probable equivalent of building the microbes luxury apartment communities with all you can eat buffets.
DCF 1.0
Figure 2: Sedimentation – Wikipedia
Tri-Zone Matrix Architecture
This system employs a modular, zoned matrix composed of three horizontally layered clay habitats, each optimized for microbial synthesis of a specific ion—sodium, lithium, or magnesium. The sodium zone integrates bentonite for hydrated porosity and halotolerant (salt tolerant) biofilms; the lithium zone blends montmorillonite and vermiculite for cation exchange and sulfide templating; and the magnesium zone combines vermiculite with biochar-infused clay, facilitating buffered precipitation and organic scaffolding. (4) (5)
The matrix functions as a surface-compatible, multi-ion refinement complex that is biologically moderated, non-extractive, and aligned with natural sedimentary logic. The three sections model mimics ecological zoning such as that which occurs at different levels, from riparian corridors, to cave systems, or to elementomes. This is a biomimicry of sedimentary environments, that often exhibit repeated lamellae, and strata of microbes and clay. (6) (7)
Figure 3: Montmorillonite – images from Wikipedia (edited)
Overview Of The 6 Layers
The microbes will flourish in this bio-similar habitat, since biofilms form naturally when there’s layering and buffered interfaces. For ionic optimization, having the spaced synthesis zones reduces saturation and supports multi-step mineral formation. Furthermore, the modularity is easy to keep intact and the stack is also tunable per ion. For instance, Magnesium (Mg) might need more acidic interlayers, Lithium (Li) a tighter spacing, or Sodium (Na) more hydration. (8)
Top Layer: Aerobic Microbial Zone
The top layer is an aerobic or oxygen rich surface zone that is the microbial interface, with light porosity where gas exchange occurs, and it also protects from desiccation.
Horizontal lamella allow diffusion & microbial circulation. These soft clay interlayers protect biofilms. Lamellae prevent compaction, distribute oxygen, and set the staging areas.
Synthesis Layer 1:
The first ionic templating site with ion-specific clay and specialized microbes initiate templating, precipitation and stabilization. The environment is slightly alkaline, which is optimal for Li⁺, Na⁺, Mg²⁺ templating. (9)
Lamellae Spacer 2:
Lamellae provide structural reset and hydration balance. They maintain porosity and enable interlayer microbial migration.
Synthesis Layer 2:
The next synthesis layer is for secondary templating & refinement. Further ion capture occurs, and this layered output may improve purity for refinement. (10)
Reservoir Layer:
The passive bottom layer is the byproduct collection and anaerobe zone. It is a waste sink, for possible post-treatment or soil reentry.
Figure 4: Sodium, Lithium, Magnesium – images from Wikipedia (edited)
The Matrix Habitat:
Top Layer, Aerobic Microbial Zone
• Montmorillonite-Bentonite blend
• Oxygen-rich environment
• Hosts lithium, sodium microbes
Light porosity for gas exchange
A bentonite/montmorillonite blend is selected for the top layer across all zones to balance hydration stability, microbial adhesion, and surface ion buffering. Pure bentonite offers excellent swelling and cation exchange, and the blended structure maintains porosity and surface coherence without over saturation—providing an optimal aerobic habitat and gentle ionic interface for halotolerant, sulfide-compatible, and buffered microbial communities alike. (11) (12)
Middle Layer, Ion Exchange Zone:
• Montmorillonite and vermiculite sheets
• Slightly alkaline; optimal for Li⁺, Na⁺, Mg²⁺ templating
Microbial templating, mineral stabilization
Microbial Comfort Channels (throughout):
• Horizontal lamella allow diffusion & communication
Soft clay interlayers protect biofilms
Montmorillonite
Bottom Layer, Passive Reservoir:
• Captures byproducts & unrefined ions
• Potential anaerobic microbial zone
Reusable as soil amendment or biosensor
Each reservoir layer serves as a passive collection zone for refined mineral compounds and microbial byproducts. In the sodium zone, it captures excess Na⁺ and halotolerant biosignatures for reuse or biochemical sensing/monitoring. In the lithium zone, it buffers residual Li⁺ compounds and supports secondary microbial cycling. In the magnesium zone, it stabilizes struvite or MgO precipitates, and byproducts can be repurposed for soil amendment/fertilizer or storage. Across all zones, the reservoir preserves ecological fidelity while enabling controlled harvesting of bio-refined minerals. (13)
Figure 5: Biochar & Struvite – images from Wikimedia (edited)
Design By Zone (Lithium / Sodium / Magnesium)
Sodium Zone: Halo-tolerant Refinement (Na⁺)
• Top Aerobic Layer
• Lamellae Spacer 1
• Synthesis Layer 1 (Na⁺ templating)
• Lamellae Spacer 2
• Synthesis Layer 2
• Reservoir Layer (byproducts and microbial reuse)
Both synthesis layers in the sodium zone utilize bentonite clay, selected for high montmorillonite content, swelling capacity, and strong affinity for Na⁺ ions. The hydrated, porous structure creates an ideal environment for halotolerant microbes, enabling efficient sodium templating and sustained biofilm activity across both layers.
The reservoir layer in the sodium zone captures residual Na⁺ ions and halotolerant microbial metabolites. Byproducts may include sodium hydroxide (NaOH), sodium carbonate (Na₂CO₃), and trace biosignals such as osmolytes, or extracellular polymers. (14) These compounds reflect successful microbial templating and salt-tolerant metabolic activity. Sodium Hydroxide, though volatile, indicates pH modulation, while mild Sodium Carbonate may form through microbial respiration or buffering. (15) (16)
While sodium hydroxide may form in trace amounts as a microbial byproduct, the matrix design integrates buffering substrates—such as bentonite clay and vermiculite—to absorb alkalinity and prevent corrosive accumulation. Halo-tolerant microbes like Halomonas elongata, also contribute to localized pH regulation through osmolyte production and ion exchange. Together, these mechanisms preserve surface compatibility and ensure that any sodium derivatives remain ecologically safe and non-toxic. (17) (18)
Lithium Zone: Sulfide-Compatible Refinement (Li⁺)
• Top Aerobic Layer
• Lamellae Spacer 1
• Synthesis Layer 1 (Li⁺ templating)
• Lamellae Spacer 2
• Synthesis Layer 2
• Reservoir Layer (for biosensor output or reentry)
Each lithium zone incorporates two synthesis layers composed of a montmorillonite and vermiculite blend. The upper layer initiates Li⁺ templating through high cation exchange and microbial adhesion, while the lower layer provides buffered conditions for secondary mineral formation and refinement. This dual-layer structure enhances microbial throughput and supports the sequential capture of lithium compounds with ecological fidelity. (19)
The reservoir layer in the lithium zone captures downstream byproducts of microbial refinement, including residual Li⁺ ions, lithium hydroxide, and lithium sulfide. These compounds reflect successful microbial templating and metabolic activity, with LiOH indicating effective pH modulation and Li₂S suggesting sulfide-rich anaerobic cycling. Chemical or molecular traces may also accumulate, offering great potential for reuse. Together, these outputs mark the completion of refinement and better preserving ecological fidelity within the lithium habitat. (20)
Magnesium Zone: Buffered Clay Habitat (Mg²⁺)
• Top Aerobic or Buffered Layer
• Lamellae Spacer 1
• Synthesis Layer 1 (Mg²⁺ templating)
• Lamellae Spacer 2
• Synthesis Layer 2
• Reservoir Layer (useful Struvite or Magnesium Oxide MgO output)
Both synthesis layers in the magnesium zone utilize a blend of vermiculite and biochar. Vermiculite provides high cation exchange capacity and interlayer hydration, supporting Mg²⁺ adsorption and microbial mobility. Biochar enhances porosity, buffers pH, and offers additional surface area for Struvite, a potential fertilizer, or MgO formation. Together, the layers create a breathable, buffered habitat for magnesium-templating microbes such as Proteus mirabilis and Bacillus subtilis, enabling efficient mineral refinement with ecological fidelity. (21)
Figure 6: Ghost Calcite, example of lamellar sedimentation – photo by the author
Sheet-Like Lamellae Spacers
Unlike other designs for clay synthesis, this matrix adds microbes and keeps the geometry horizontal, breathable, and microbe-hospitable. The layered mineral logic allows for naturally encouraged refinement of lithium, sodium, and magnesium. Inspired by nature, it mimics how natural clays (like kaolinite and mica) form layered stacks from interstitial water and ion flow.
Lamellae are mechanically stable; easy to press, mold, or print using common materials with no need for nanofabrication. For microbial comfort, they offer wide surface area for biofilm formation and templating, with no pressure points or harsh vertical compression.
The modularity and scalability ensure that these layers can be added or adjusted based on synthesis needs (such as here lithium, sodium, magnesium), making it versatile without complexity.
Montmorillonite clay is selected as the lamellae spacer material across all matrix zones due to its layered structure, exceptional cation exchange capacity, and microbial compatibility. As a naturally occurring, hydrated silicate, it facilitates horizontal flow, supports microbial adhesion, and maintains stable moisture levels—making it an ideal neutral corridor between synthesis layers without interfering with ion-specific templating. (22)
Figure 7: Atacama, Chile – Wikipedia
The Specialized Microbes
Starting with the remarkable Pseudomonas rhodesiae, it tolerates extraordinary lithium concentrations, and also converts lithium salts into lithium sulfide, using nothing more than cysteine and its own metabolism. The positive implications for current industry here are tremendous.
Originally isolated from natural mineral waters, especially in lithium-rich environments like the Atacama salt flats, it belongs to the P. fluorescens group, known for thriving in moist, mineral-rich, and slightly alkaline conditions. To perform this biomineralization of lithium sulfide, P. rhodesiae needs lithium salts (lithium chloride or lithium sulfate in solution). Also listed here are the matched microbes for Sodium and Magnesium, which offer less invasive and more earth-friendly ethical alternatives for battery production. (23)
Top Microbe for Sodium (Na⁺): Halomonas elongata
– Thrives in saline environments and perfect for sodium chloride inputs.
– Naturally regulates sodium ion transport and osmotic balance.
– Produces Ectoine, a compatible solute that stabilizes biofilms.
– It’s matrix synergy works beautifully in hydrated clay layers.
– It can cohabitate with lithium-templating microbes like P. rhodesiae. (24)
Top Microbe for Lithium (Li⁺): Pseudomonas rhodesiae
– Tolerates extremely high lithium concentrations, up to 700 mM.
Produces Hydrogen Sulfide in the presence of Cysteine, an amino acid that helps the bacterium produce H₂S, which reacts with lithium to form Li₂S nanoparticles.
– Moderate temperature, between 20–30°C, and typical of mesophilic bacteria.
– P. rhodesiae prefers aerobic/oxygen-rich environments.
– Neutral to slightly alkaline pH, which is ideal for sulfide production and nanoparticle formation.
Top Microbe for Magnesium (Mg²⁺): Proteus mirabilis
– Ideal for its demonstrated ability to synthesize magnesium oxide nanoparticles extracellularly
– Active in neutral pH (~7), aligning with the matrix’s middle zone.
– Produces enzymes that reduce Mg²⁺ and stabilize mineral output.
– Compatible with montmorillonite and vermiculite layers.
Can co-refine magnesium alongside lithium and sodium without competitive inhibition. (25)
Figure 8: The Microbes – images from Wikipedia (edited)
Source Materials & Interactions
Lithium (Li⁺): Lithium chloride can come from surface brines, which is high energy density for mainstream adoption. P. rhodesiae or L. sphaericus refine this into LiOH or Li₂S, and there is a strong cation exchange via montmorillonite & vermiculite. (26)
Sodium (Na⁺): This is readily available as sodium chloride (NaCl), which is abundant, non-toxic, and low-cost. The halo-tolerant microbes can template Na-based compounds and are compatible with the bentonite and clay hydration layers.
Magnesium (Mg²⁺): Magnesium sulfate or carbonate minerals are high charge density and stable chemistry. Microbes mediate Mg mineralization (e.g. struvite) while the matrix buffers pH and enables ion accommodation. (27)
By enabling microbial synthesis of lithium alongside sodium and magnesium within the same clay matrix, this design offers an adaptable, modular refinement path—supporting both current demand and more importantly next-generation energy systems. The intent is to open another door to regenerative mineral economy with a concept that’s scaleable.
Suggested Size For Lab-Scale Prototype
The goal starting parameters for a convincing yield would have to show effective surface-compatible synthesis of Li⁺, Na⁺, and Mg²⁺ at meaningful volume for lab validation or pilot demonstration. These are conservative estimates based on microbial throughput, ion diffusion rates, and realistic surface-compatible yields; scaling up is modular, expanding each layered zone independently:
Matrix footprint: 45 cm × 15 cm × 5 cm
Total yield: 0.5–1.0 g/day across three elements
Zone < Dimensions < Volume < Clay Mass (wet) < Target Output
Sodium: ~15 × 15 × 5 cm, ~1.1 L, ~1.2 kg, ~300–500 mg Na per day
Even this demonstration scale could provide real-world relevance without extractive pressure. It also provides enough material for spectroscopy, structural analysis and perhaps even battery prototype testing. (28)
Figure 9: Microsoft Copilot AI visualization of the Biorefinery
Field-Ready Biorefinery Model
The tri-zone clay matrix for refining lithium, sodium, and magnesium is very well suited for distributed deployment as a field-scale biorefinery. (29) For containment, a cellulose bioplastic is recommended for each matrix unit. (30) Here’s how it can translate to larger scale:
Modular Arrays
– Each unit is ~45 × 15 × 5 cm and self-contained.
– Arrays of 10–100 units can be deployed in greenhouses, rooftops and more.
– Units are stackable or spreadable, depending on terrain and climate.
Surface-Compatible Operation
– No excavation, no toxic solvents, no extractive pressure.
– Uses ambient hydration, passive flow, and microbial inoculation.
– Can be powered by solar-heated water, rain-fed systems or gravity-fed brine inputs.
Microbial Refinement Zones
– Sodium zone: Halomonas elongata in bentonite-rich lamellae.
– Lithium zone: P. rhodesiae and L. sphaericus in montmorillonite/vermiculite blend.
– Magnesium zone: Proteus mirabilis and B. subtilis in biochar-infused vermiculite. (31)
Possible Large Scale Yield Of Minerals
Based on the above information, a 100-unit array could produce ~50–100 g/day of refined ion compounds. That is enough for battery prototyping, material testing, or regional supply chains. Lithium is presented here, since it has been an industry standard. However, sodium and magnesium based batteries are also here presented as possibly more non toxic and ethical alternatives, in addition to others. (32)
Conclusion
Guided by microbial intelligence, this design harnesses the innate capability of Earth’s earliest engineers. With future directions that could even include terraforming, this process-based design represents a biorefinery that is a living mineral farm. It’s deployable, ethical, and revolutionary — an architecture of stewardship and synthesis. This layered clay matrix, guided by specialized microbes, refines sodium, lithium, and magnesium with ecological fidelity and it also nourishes the soil through beneficial byproducts like struvite and magnesium oxide, returning value to the Earth. Such symbiotic logic could reshape mineral sourcing for good. After all, nature is working for us and not against us, and we can do the same.
References
1. Rudko, G. (2022). Scientific and Methodological Foundations of Biogeology. In: Chenchouni, H., et al.New Prospects in Environmental Geosciences and Hydrogeosciences. CAJG 2019. Advances in Science, Technology & Innovation. Springer, Cham. https://doi.org/10.1007/978-3-030-72543-3_21
2. Biemolt J, Jungbacker P, van Teijlingen T, Yan N, Rothenberg G. Beyond Lithium-Based Batteries. Materials (Basel). 2020 Jan 16;13(2):425. doi: 10.3390/ma13020425. PMID: 31963257; PMCID: PMC7013668.
3. Marwa Eltarahony, Daniel Jestrzemski, Mohamed A. Hassan,
A comprehensive review of recent advancements in microbial-induced mineralization: biosynthesis and mechanism, with potential implementation in various environmental, engineering, and medical sectors,
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5. Emily Millman, Anamika Chatterjee, Kimberly M. Parker, Jeffrey G. Catalano, Cation exchange to montmorillonite induces selective adsorption of amino acids, Geochimica et Cosmochimica Acta, Volume 372, 2024,
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12. Endo, M., & Sato, H. (2024). Swelling Stress of Bentonite: Thermodynamics of Interlayer Water in K-Montmorillonite in Consideration of Alteration. Minerals, 14(4), 430. https://doi.org/10.3390/min14040430
13. Bamdad, H., Papari, S., Lazarovits, G., & Berruti, F. (2022). Soil amendments for sustainable agriculture: Microbial organic fertilizers. Soil Use and Management, 38, 94–120. https://doi.org/10.1111/sum.12762
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Drawing from both natural chemistry and bio-inspired engineering, next generation regenerative pavement reimagines infrastructure as a living ecosystem partner. Made from layered travertine, lava rock and microbial agents, modular tiles interlock via simple tongue and groove joints, and interface with breathable bentonite slip to stabilize and fertilize the underlying soil, as well as sequester carbon and filter stormwater. This system heals itself naturally through microbial calcite precipitation, absorbs water, supports plant life, and can be deployed rapidly using either precast tile modules, or a companion regenerative mineral paste. They can transform urban surfaces into soil-restorative networks that collaborate with the Earth, rather than compete with it. This pavement isn’t just new a materials product design. It’s part of a new mindset that regards mineral logic and nature’s intelligence, hewn over millennia. (1)
Figure 2: Molten basalt lava flow – Wikipedia
The Main Materials
Lava rock (Basalt) and Travertine offer valuable geological contrast in that both carry deep symbolic and functional potential. What makes them so compelling for alternative pavement is firstly, composition. Rich in magnesium and iron, Lava rock (basalt) typically is also composed of silicon, oxygen, and aluminum, as well as other ultramafic or igneous minerals common to earth’s mantle.
Its texture is fine-grained and highly porous, due to the gas bubbles that escape during cooling. Next, lava’s thermal properties are excellent for heat retention and insulation—one reason why it’s used in saunas, for example. As for environmental use, it acts as a natural filter in water systems and can support plant growth due to its porosity and mineral content. In this context of pavement, it’s lightweight and durable—which is ideal for permeable layers that minimize environmental interference and even nourish the earth. (2)
The formation of Travertine (Calcium Carbonate) is precipitated from mineral-rich water, especially around hot springs. The porosity is naturally high, making it excellent for water permeability and soil interaction. As for the soil fertilizing potential, it releases calcium ions into the surrounding soil, and can buffer pH along with supporting microbial activity. Travertine is quite well known for aesthetic & structural use, famously used in classical Roman architecture, such as the Colosseum and aqueducts. (3)
Figure 2: The longstanding Roman Colosseum features Travertine; credit: Wikimedia.
Synergy
Lava brings strength, porosity, and mineral richness; Travertine offers regenerative chemistry and a soft, earthy aesthetic. Together, they can form a layered or mixed pavement system. The Lava base is for drainage and microbial support; the Travertine is aesthetic, calcium-rich, and regenerative. The substrate is a bio-enhanced binder that contains healing agents or bacteria. Here, Agent Sporosarcina pasteurii is selectedfor its environmental resilience.
The beautiful simplicity and synergy of this structure allows healing to occur from the inside out, with cracks triggering a cascade of microbial and mineral responses.
Environmental activation healing is triggered by rainwater or humidity that activates microbes and mineral exchange. It’s also triggered by temperature shifts and lava rock retains heat, which can stimulate microbial activity. Then pH changes cause cracks that expose new surfaces, shifting local chemistry and activating healing agents.
Travertine is rich in calcium carbonate, which can be reactivated through microbial processes. One could introduce urease-producing bacteria into the porous layers. When cracks form and moisture enters, bacteria trigger calcite precipitation, sealing the gaps. This mimics natural travertine formation, essentially regrowing the stone from within. (4) (5)
Mineral Cycling from Lava Rock:
Lava rock’s porosity and mineral content make it ideal for hosting microbial colonies that aid in healing. It acts as a reservoir for magnesium, iron, and silicates, which can participate in mineral bonding and surface regeneration, and supports moisture retention, which activates healing cycles.
Figure 4: The Rock Cycle – Geology
Microbial Agent
Sporosarcina pasteurii is ideal because it produces urease, an enzyme that breaks down urea into carbonate ions. And very importantly here, it facilitates microbial induced calcite precipitation (MICP), forming calcium carbonate bridges in cracks and porous zones. That fact that it thrives in alkaline environments would work well with this travertine-based system.
In this regenerative pavement it would be incorporated as powder, and activated with moisture and nutrients (e.g., urea, calcium salts). Agent S. pasteurii would work synergistically with the other ingredients — bentonite, lava minerals, and travertine calcium. (6)
Figure 5: Sporosarcina pasteurii – Alchetron, The Free Social Encyclopedia.
– Travertine Matrix Embedding
Embedding the microbes into the travertine mix turns the tile body into a slow-release microhabitat, which is ideal for long-term, passive activation. Over time, they awaken with moisture and urea exposure. This provides the structural integration of microfractures that can be biologically healed. (7)
– Bentonite Interface Embedding
Adding microbes to the bentonite slip layer allows for active and immediate biological engagement with the soil. Here they accelerate calcite sealing of tile seams and support subsurface bonding. This promotes edge protection and maintaining soil-tile integrity, especially in high-stress installations. (8)
When moisture activates the tile or bentonite layer, urea is hydrolyzed by the microbe’s urease enzyme, producing:
Carbonate ions → combine with calcium to form calcite (CaCO₃)
Ammonium ions → absorbed by the microbe for growth and energy
S. pasteurii gets both its building material (carbonate) and its nutritional fuel (ammonium) from this single reaction. The embedded microbes are not just surviving, they’re thriving on the reactions of the design. (9)
– Microbes In The Tile & Powder Matrix
Travertine or lava / basalt powder provides a porous, mineral-rich habitat. Embedded urea and calcium salts ensure the reaction can occur. Then, moisture (from rain, humidity, or installation) activates the microbes. The result is that microbes wake up, eat, and then build — no external feeding is required. (10)
– Bentonite Layer Support
If microbes are also in the bentonite they get moisture faster, triggering immediate calcite sealing at the seams. Ammonium from urea hydrolysis is also retained longer in the clay matrix, supporting microbial metabolism. (11)
Figures 6 & 7: Simple staggered squares and hexagonal honeycomb pattern for tile-based installation.
Installation
Modular Tile System
The first method of installation is having precast units with interlocking edges for rapid placement. Figures 4 & 5 show staggered squares and hexagonal patterns for simplicity and stability, as well as ease of manufacturing. Each tile would contain embedded lava and travertine layers for targeted multifunction. This also means easy replacement of sections without heavy equipment or disruption. The dimensions could be 6×6 feet on a flat grade, or 3×3 feet per tile for flexibility.
Dry Blend Paste
– Travertine Powder (CaCO₃): Fertilizes soil, supports microbial healing. Fine grind improves dispersion and reactivity.
– Lava (Basalt) Ash / Dust: Adds porosity, minerals (Mg, Fe), microbial support. Enhances thermal properties and water retention.
This mix would be delivered as a dry blend that’s activated on-site with water—making it easy to transport and flexible for different installation methods. Both of these formats signify low-energy installation protocols, the materials designed to cure or bond without high heat or toxic adhesives. They use gravity-fitted layers and natural binders like clay-based slips. Overall, this reduces carbon footprint and encourages community-scale deployment. (12)
Regenerative Pavement Paste, Ratio By Volume
Travertine Powder (CaCO₃) – 2 parts.
Soil fertilization, microbial calcite source.
Lava (Basalt) Dust / Ash – 1.5 parts.
Porosity, mineral enrichment, microbial habitat.
Sodium Bentonite Clay – 1 part
Binder, swelling agent, crack sealing.
Water – ~0.5–1 part (adjustable)
Activation and spreadability.
Optional Additives: 0.1–0.2 parts
Microbial inoculants, or biochar, clay slip, natural latex.
This 2:1.5:1 ratio gives a mineral-rich, porous, and biologically active paste that can be applied by trowel, roller, or spray. Water content can be adjusted based on climate and application method. (13)
Deployment Notes
Dry mix option: Can be shipped as powder and activated on-site with water.
Curing time: ~24–48 hours depending on humidity and temperature.
Spread thickness: ~1–2 cm for overlays; thinner for crack filling.
Shelf life: Dry mix can last months if stored airtight and moisture-free.
Carbon Sequestration & Stormwater Filtration
Beyond its structural and regenerative strengths, the basalt–travertine mix offers significant environmental co-benefits. Basalt, rich in reactive silicates, actively participates in carbon sequestration through enhanced weathering—capturing atmospheric CO₂ and converting it into stable carbonate minerals over time. Simultaneously, the porous nature of travertine and the mineral permeability of basalt promote stormwater infiltration and groundwater recharge, reducing surface runoff, filtering pollutants, and supporting hydrological resilience. Together, this is a powerful mineral duo for sustainable infrastructure. (14)
Figure 8: Rock Cycle (Holt Science and Technology Earth Science)
Materials Synthesis
Fortunately, the main materials are naturally available in numerous locations. However, it’s possible both Travertine and Basalt could be synthesized, with the synthesis of basalt from alluvial silt beginning in ancient Mesopotamia. (15)(16) It’s possible one day soon, that the synthesis of many minerals could be achieved by following the rock cycle and adding in corresponding microorganisms.
Future Vision
Both cubic and hexagonal forms are common to crystallization of minerals, such that over time, this combination and others for regenerative pavement, may make it possible for a more sculpturally integrated landscape. The roadways and thoroughfares, and even the technologies they support, could become more of an extension of nature’s patterns. And nature’s patterns could be conscientiously trained for a cohesive and synergetic interface. Roads being more like terraced growths or outcroppings of the land is but one fascinating example among many exciting possibilities of better understanding earth science and dynamics, and cooperating with geologic formations.
Conclusion
Travertine is formed by water and time, a symbol of luxury, legacy and enduring solution; Lava is born of fire, and symbolic of dynamic transformation. Together, they create a pavement that endures and evolves. These materials additions aren’t just alternative — they’re harmoniously multifunctional at every scale. In addition to reducing paved surfaces, they support the goal of replacing toxic, oppressive pavements with living infrastructure that respects and nourishes water flow, soil health, and plant life. (17) Pavement doesn’t have to suffocate the planet — it can collaborate with it. Infrastructure should not dominate Earth — it should collaborate with it as a living organism.
References
Burbano, Diego & Theodoro, Suzi & Carvalho, André & Ramos, Claudete. (2022). Crushed Volcanic Rock as Soil Remineralizer: A Strategy to Overcome the Global Fertilizer Crisis. Natural Resources Research. 31. 10.1007/s11053-022-10107-x.
6. Ghosh T, Bhaduri S, Montemagno C, Kumar A. Sporosarcina pasteurii can form nanoscale calcium carbonate crystals on cell surface. PLoS One. 2019 Jan 30;14(1):e0210339. doi: 10.1371/journal.pone.0210339. PMID: 30699142; PMCID: PMC6353136.
7. Zhijun Wang,Jianjun Yin,Junbing Pu,Daoxian Yuan. Biological Processes Responsible for Travertine Deposition: A Review and Future Prospect[J]. Advances in Earth Science, 2019, 34(6): 606-617.
8. Stable microbial community in compacted bentonite after 5 years of exposure to natural granitic groundwater. mSphere. 2023 Oct 24;8(5):e0004823. doi: 10.1128/msphere.00048-23. Epub 2023 Sep 29. PMID: 37772811; PMCID: PMC10597416.
9. Pei D, Liu Z, Wu W, Hu B. Transcriptome analyses reveal the utilization of nitrogen sources and related metabolic mechanisms of Sporosarcina pasteurii. PLoS One. 2021 Feb 9;16(2):e0246818. doi: 10.1371/journal.pone.0246818. PMID: 33561150; PMCID: PMC7872227.
10. Matthew J. Tuttle, Brandon M. Bradow, Rhett L. Martineau, Michael S. Carter, Joshua A. Mancini, Karen A. Holley, Robert A. Diltz, Chia-Suei Hung, and Maneesh K. Gupta. Shelf-Stable Sporosarcina pasteurii Formulation for Scalable Laboratory and Field-Based Production of Biocement. ACS Applied Materials & Interfaces 2025 17 (5), 7251-7261. DOI: 10.1021/acsami.4c15381.
11. Yu, R., Zhou, J., Xie, Z., Wang, C., & Ma, X. (2018). Mechanism of ammonium adsorption from wastewater by modified bentonite and optimization by response surface. Bioremediation Journal, 22(1–2), 1–9. https://doi.org/10.1080/10889868.2018.1445696.
12. The Future Forest Company. (2021). *Enhanced weathering of basalt rock as a method of atmospheric CO₂ removal: Phase 1 Design Study Report*. Department of Business, Energy, and Industrial Strategy. [https://assets.publishing.service.gov.uk/government/uploads/system/uploads/attachment_data/file/1075312/the-global-future-forest-report.pdf]
13. Bob. (n.d.). Complete guide to bentonite cement grout mix design for stronger structures. ConcreteCaptain.com. [https://concretecaptain.com/bentonite-cement-grout-mix-design]
14. Minnesota Pollution Control Agency. (2023). *Green Infrastructure benefits of infiltration practices*. Minnesota Stormwater Manual. [https://stormwater.pca.state.mn.us/index.php?title=Green_Infrastructure_benefits_of_infiltration_practices]
15. Luza Huillca, C.A., Jiménez Pacheco, H.G., Miranda Ramos, L.M., et al. (2023). Characterization analyzes in the geomechanical behavior of travertine rock. SN Applied Sciences, 5, 267. [https://doi.org/10.1007/s42452-023-05420-w](https://doi.org/10.1007/s42452-023-05420-w).
16. Stone, E. C., Lindsley, D. H., Pigott, V., Harbottle, G., & Ford, M. T. (1998). *From shifting silt to solid stone: The manufacture of synthetic basalt in ancient Mesopotamia*. Science, 280(5372), 2091–2094. [https://www.jstor.org/stable/2896530](https://www.jstor.org/stable/2896530).
In response to the growing concerns of urban air pollution and climate change, this paper presents the conceptual design of a multifunctional, autonomous air filtration and carbon capture drone, and system. Engineered to operate in diverse environments—ranging from industrial zones to natural landscapes—this aerial system incorporates a curved aerodynamic body optimized for passive air intake and pollutant filtration. With its electrostatic ionizing fins, vortex-induced airflow, and embedded metal-organic frameworks (MOFs) for pollutant capture and oxygen dispersion, the drone efficiently purifies atmospheric contaminants without reliance on excessive power consumption. Designed for autonomous or fleet operation with optional manual control, it adapts dynamically to pollution levels through real-time air monitoring and swarm coordination. Constructed with heat-resistant, wind-stable materials, this resilient environmental solution is envisioned as an essential urban asset—integrating with city infrastructure, while providing air quality data for regulatory decision-making. Through a synthesis of biomimetic design principles and advanced filtration technologies, this drone represents a potentially scalable and efficient step toward cleaner, more sustainable air ecosystems and even atmospheric regeneration. This is being said with the recognition that there are other factors which need to change, such as chemicals regulation and continuing to phase out fossil fuel usage.
Body Material Of The Drone
For maximum efficiency, the drone has a carbon fiber composite frame with made with graphene and metal-organic frameworks (MOFs) provide lightweight durability, aerodynamic optimization, and pollutant filtration. The Carbon-based composite integrates graphene and MOFs to enhance functionality. (1)
The Hybrid Carbon-Graphene-MOF Structure combining all three materials results in a multifunctional composite that is strong, lightweight, and capable of passive air purification. Graphene enhances durability and electrostatic pollutant capture; MOFs provide gas adsorption and filtration capabilities; Carbon fiber ensures structural integrity and aerodynamic efficiency. (2)
The MOFs are crystalline porous materials with organic linkers and metal nodes. They’re designed for modularity and selective binding affinities. The MOF selected for this body is NU-1000, which is composed of Zirconium, Oxygen and Carbon, and known experimentally for versatility in environmental applications. Here, it’s uniformly distributed throughout the body for passive air purification. (3)
Uniformly embedding NU-1000 throughout the drone’s structure ensures that every surface is actively participating in pollutant adsorption, not just acting as passive housing. With its large mesoporous channels (having a pore diameter of 2-50 nm) and zirconium-based durability, NU-1000 will deliver consistent performance across the entire frame. (4)
As the uniform integration allows for distributed filtration, the whole body becomes a breathing, purifying surface. This allows for greater weight efficiency in that are no bulky filter compartments; just functional material integrated into the body. There is thus maximized surface area interaction, and pollutants have more chances to be captured as airflow moves along the curved form. There is also the advantage of its integrated thermal and chemical resilience, matching the drone’s exposure to harsh zones.
This composite is layered with graphene sheets to enhance electrostatic charge distribution, guiding particles straight into the pores. (5)
Figure 3: Fin movement detail, depicted here with adaptable spacing and length.
Body Shape & Rotating Fins
The curved shape of the drone has several aerodynamic advantages: Reduced drag and turbulence, increased airflow and moving larger volumes of air, and lift. Generally in aircraft, the curved upper surface of the wing generates lift when air travels faster over the top than underneath.
The drone’s rotating adaptable fins are used for stability and aerodynamic purposes. They help keep the aircraft on the intended line of flight and provide yaw control during turbulence.
The fin–style perimeter propellers, mimicking cillia or even villi, reduce drag plus increase lift while contributing to micro-vortex generation. The inward spiral of them encourages a centripetal flow, pulling air across the body and into the filters. (6)
Aesthetically and functionally bio-inspired, the drone is like a living organism that breathes and moves in a rhythmic spiral. The perimeter enhances flow guidance and gives it a uniquely organic and biomimetic edge—way more than a simple rotating band. (7) (8)
Hybrid Fin Structure
1. Outer shell: Carbon fiber or graphene-nylon composite, shaped into inward-spiraling, adaptable curved fin geometry.
2. Core or base: A Titanium / SMP (Shape Memory Polymers) alloy such as Nickel-Titanium for both support and adaptive motion.
3. Surface coating: TiO₂ layer for photocatalytic self-cleaning and pollutant breakdown.
This combo gives strength, lift, flexibility, and intelligence — like a living organism navigating its environment. (9) (10)
Figure 4: Fin detail
Smart Fin Performance Across Conditions
Let’s have a look at the side by side of Condition, Fin Behavior and Smart Material Response (11) —
High Wind / Gusts – Fins flex slightly to reduce drag and stabilize flight. Shape Memory Alloys (SMAs) or piezoelectric strips adjust fin angle to maintain balance. (12)
Heavy Pollution / Dense Particulates – Fins increase intake angle to guide more air toward filters. Electroactive Polymers (EAPs) flex to widen the intake arc. (13)
High Heat / Wildfire Zones – Fins stiffen to maintain structural integrity and airflow. Thermo-responsive polymers lock into rigid form to resist warping. (14)
Rain / High Humidity – Fins reduce intake angle to prevent water saturation. Hydrophobic coatings repel moisture; SMA cores contract slightly. (15)
Urban Smog / Low Wind – Fins spiral inward to create stronger vortex pull and make constructive use of the [fluid dynamics] vortex shedding and flocculation for air purification. Piezoelectric actuation fine-tunes curvature for maximum lift and intake. (16) (17)
Smart Material Actuation For The Fins:
1. Embedded sensors in the command nucleus detect wind speed, air quality, temperature, and humidity. (18)
2. Microcontrollers send signals to the fins’ smart material cores.
3. Actuation occurs:
– SMAs heat slightly and change shape (e.g. curl or straighten).
– EAPs flex when voltage is applied, adjusting fin curvature.
– Piezo strips bend or twist for micro-adjustments.
4. Feedback loop ensures constant adaptation, like an organism responding to its environment.
In this way the drone is more than a machine. And these fins don’t just keep it aloft; they also optimize purification, stability, and energy efficiency in real time. And, they are also the same shape as the materials stress / strain curve graph for Nitinol (Nickel-Titanium).
Main Filters
The Core Filters, determined essential for urban & industrial pollution, are as follows (19):
1. Particulate Matter (PM2.5 & PM10) Filter – Captures fine airborne particles from vehicle emissions, construction, and industrial processes.
– Function: Captures fine dust, soot, and aerosols from vehicles, construction, and industrial emissions.
– Technology: Electrostatic precipitation mesh or nano-fiber membrane. (20) (21)
2. Nitrogen Oxides (NOx) Filter – Neutralizes pollutants from combustion engines and industrial activities, reducing smog formation.
– Function: Neutralizes reactive gases that contribute to smog and respiratory issues.
– Technology: Catalytic converters using manganese oxide or cerium-based catalysts, optionally paired with MOFs for adsorption. (22)
3. Volatile Organic Compounds (VOCs) Filter – Absorbs harmful gases from vehicle exhaust, industrial solvents, and household products.
– Function: Absorbs harmful gases like benzene and formaldehyde from exhaust, solvents, and urban sources.
– Technology: Activated carbon infused with amine functionalized MOFs or photocatalytic coatings (such as TiO₂).
4. Carbon Dioxide (CO₂) Capture System – Uses MOFs or chemical absorption to trap excess CO₂ and potentially convert it into useful compounds.
– Function: Reduces atmospheric CO₂ levels, especially in high-traffic or industrial zones.
Technology: NU-1000 already contributes here, and this filter could use amine-rich sorbents or ZIF-8 composites for enhanced CO₂ selectivity. (23)
Each filter can be modular, allowing for easy replacement or upgrades based on mission type or location. And with real-time air quality sensing, the drone could prioritize which filters to activate or pulse, conserving energy while maximizing impact.
Self-Cleaning Mechanisms for the Filters
1. Electrostatic Regeneration (24)
– For filters using electrostatic attraction, a voltage pulse can reset the charge and repel accumulated particles.
– The drone can momentarily reverse polarity to shake off debris into a collection chamber or out the vents.
2. Photocatalytic Self-Cleaning (25)
– Filters coated with TiO₂ (titanium dioxide) can use UV light (from onboard LEDs or sunlight) to break down organic pollutants.
– This keeps the filter surface clean while also neutralizing VOCs and pathogens.
3. Centrifugal Ejection via Vortex Flow (26)
– The drone’s own vortex-generating blades create a centrifugal airflow that helps fling debris outward from the filters.
– The vents between filters act as exhaust ports, channeling expelled particles away from the drone.
By combining passive and active cleaning methods, the drone becomes a self-sustaining filtration system—like a flying air scrubber that rarely needs to land for a rinse.
Vents With Ducted Propellors
The vents are located in between the filters and are multipurpose in that they contain ducted propellers. (27)
– Vortex Amplification: Small, low-energy propellers inside the vents spin counter to the main flow, enhancing centrifugal force to dislodge and eject particles.
– Air Recirculation: These fans also redirect filtered air outward, maintaining clean airflow around the drone’s perimeter and helping with thermal regulation.
– Modular Control: Each could be tuned independently, based on wind conditions or specific pollutant load in that zone.
TiO₂ & UV Integration
This combo is a powerhouse for self-cleaning, sterilization, and advanced purification, and this setup also helps prevent biofilm or mold buildup, especially in humid conditions.
TiO₂ Photocatalysis: When exposed to UV light, titanium dioxide breaks down organic matter, pathogens, and VOCs at the filter surface. (28)
Placement: A fine TiO₂ coating on and around the filters, combined with UV LED rings embedded in the filter housings, ensures every intake gets illuminated.
The total effect is a virtually autonomous purification core, with the body acting as a passive NU-1000 sponge, the active filters regenerating themselves via light, airflow, and vibration, and the vent-propellers maintaining flow dynamics and debris ejection. Overall, a high-efficiency, low-maintenance air purification system in flight.
– LiFePO₄ batteries could provide a stable, long-lasting core power supply for all components. (29)
– Solar-graphene panels atop the body and nucleus extend flight time and recharge passively during daylight. (30)
This combo is reliable, clean, safe, and scalable with reduced environmental impact and less toxic waste. These interconnected command components are all well protected in the nucleus.
Airflow Sequence Overview
1. Intake Phase – The Four Cardinal Filters
– Air is drawn inward through the four primary filters (PM, VOCs, CO₂, NOx/O₃) positioned at the cardinal points.
The rotating perimeter band of curved fin propellers creates a low-pressure vortex above the drone, pulling air down and across the filter surfaces.
– Ducted propellers in the vents between filters assist by swirling and guiding air into the central chambers. (31)
2. Filtration Core – The Living Body
– As air passes through the filters, it enters the NU-1000–infused carbon-graphene body, which acts as a secondary filtration sponge.
– The body captures residual gases and fine particles while maintaining laminar flow.
– Embedded UV LEDs and TiO₂ coatings around the filters and inner shell break down VOCs and even pathogens during this phase.
3. Command Nucleus – Flow Coordination (32)
– The central nucleus houses air quality sensors and flow regulators.
– It monitors pollutant levels and adjusts filter intensity, vortex speed, and vent activity in real time.
– If needed, it can trigger reverse air pulses or electrostatic regeneration to clean filters mid-flight.
4. Exhaust Phase – Vents & Vortex Ejection
– Cleaned air is expelled through the four interspersed vents, aided by the propellers and rotating band.
– This creates a centrifugal outward flow, flinging any dislodged particles away from the drone’s body.
– The expelled air also helps maintain lift and thermal balance, contributing to flight stability.
This creates a 360° purification loop, where every component—filters, vents, body, and blades—works in harmony like a flying lung.
Vents Between Each Filter Circle:
– Symmetry & balance: Placing vents between filters distributes exhaust evenly, avoiding drag from one side. This is excellent for maintaining consistent outward flow and clean pressure zones across the disk.
– Efficient air expulsion: As air enters through filters, it can exit immediately through adjacent vents, minimizing turbulence inside.
Modular zoning: Each filter/vent pair is optimized for a specific set of pollutants and could be further tuned.
Measurements & Performance
Diameter: 1.5 meters (approx. 5 feet)
– Big enough for meaningful filtration and solar coverage
– Small enough to navigate urban airspace and rooftops
Height/Thickness: 12–15 cm (approx. 5–6 inches)
– Accommodates layered fins, filters, and power systems
Fin Length: 15-25 cm (6-10 inches) outward from the perimeter (10–15% of the radius)
4 filters, each ~30 cm (12 inches) in diameter
With 4 vents between the 4 filters, each vent occupies a quadrant arc.
– To maintain symmetry and airflow, each vent-propeller unit can be 20–25 cm (8–10 inches) in diameter.
Central Nucleus Diameter: Reserve 20–25 cm (8–10 inches) for the command nucleus at the center. This leaves enough room for: Flight controller, power system, sensor suite, cooling and shielding layers.
Environmental Impact Radius
– At this size, one drone could filter 1000–3000 cubic meters of air per hour, depending on altitude and wind.
– A fleet of 10–20 drones could cover a small city district or industrial zone in coordinated sweeps.
A rough filtration rate of 2,000 cubic meters of air per hour is estimated under optimal conditions. That’s equivalent to the air volume of a large auditorium or a city block’s worth of street-level air — and with a fleet of 10 drones, that would clean
20,000 m³/h, enough to make a real dent in urban air pollution. (33)
The Retrofit Kit For Helicopters
Imagine also a modular kit that could be attached to helicopters already flying for news and weather monitoring, search and rescue, or utility and cargo transport. Several companies offer Inlet Barrier Filter (IBF) retrofit kits for helicopters, but these are designed to protect engines from dust, sand, and debris—not to clean the air for environmental benefit as the Kit would. (34) This Kit would consist of:
TheKit Components
– Clip-on NU-1000 filter modules (external or integrated into IBF housing).
– UV-C or TiO₂ treatment chamber for passive pollutant breakdown.
– Smart airflow diverters to route intake through filters without affecting engine performance.
– Telemetry pod to log air quality data and sync with a fleet.
The anticipated benefits are numerous. The retrofit kit turns existing helicopters into mobile air purifiers and works passively during normal flight operations. Easily it would add environmental value to routine missions and so could be incentivized by cities and climate initiatives. This is both novel and actionable, and could make a immediate and significant impact for cities, disaster zones, wildfire-prone regions and more.
The Two-Tiered Atmospheric Regeneration Strategy
1. Drone Fleet – Bio-intelligent UAVs / drones for targeted, autonomous purification that are ideal for urban centers, industrial zones, and hard-to-reach areas.
2. Retrofit Kit For Helicopters – Modular filtration systems for existing helicopters that are scalable, cost-effective, and deployable immediately. They turn routine flights into passive air-cleaning missions.
This dual strategy covers the scope of what is possible, and importantly what is already actionable.
Figure 6: Haze after fireworks, Boston 7/4/25 – a sample mission for drone air purification. Photo by the author.
Conclusion
Influenced by microorganisms and UFOs, this biomimetic drone configuration incorporates vortex aerodynamics and smart materials in a structurally comprehensive and harmonious layout, that transforms the drone into an air purifying organism, which suits the variety of filtration missions it would encounter. Also the shark or cilia-style fins and vent ducted propellers blend propulsion, filtration, and attitude control combine in the one sculptural form.
The potential performance impact of the drone fleet and the retrofit helicopters addresses a pressing if not urgent global need to address air quality and removal of pollutants for atmospheric regeneration and stability, and to benefit the short and long term health and safety of all.
With its rotating shape and glowing UV lights, these UFO-style unmanned aerial vehicles come in peace to clean the air — And what a great benefit they would be to municipalities everywhere.
Figure 7: Microsoft Copilot artistic interpretation
References
1. Jayaramulu K, Mukherjee S, Morales DM, Dubal DP, Nanjundan AK, Schneemann A, Masa J, Kment S, Schuhmann W, Otyepka M, Zbořil R, Fischer RA. Graphene-Based Metal-Organic Framework Hybrids for Applications in Catalysis, Environmental, and Energy Technologies. Chem Rev. 2022 Dec 28;122(24):17241-17338. doi: 10.1021/acs.chemrev.2c00270. Epub 2022 Nov 1. PMID: 36318747; PMCID: PMC9801388.
2. Bindu M, Pradeepan Periyat. Graphene and its derivatives for air purification: A mini review. Results in Engineering, Volume 21, 2024, 101809,ISSN 2590-1230,
3. R. Abazari, S. Sanati, M. A. Bajaber, M. S. Javed, P. C. Junk, A. K. Nanjundan, J. Qian, D. P. Dubal. Design and Advanced Manufacturing of NU-1000 Metal–Organic Frameworks with Future Perspectives for Environmental and Renewable Energy Applications. Small 2024, 20, 2306353. https://doi.org/10.1002/smll.202306353
4. Peng Zhang, Mingming He, Wei Teng, Fukuan Li, Xinyuan Qiu, Kexun Li, Hao Wang. Ordered mesoporous materials for water pollution treatment: Adsorption and catalysis. Green Energy & Environment, Volume 9, Issue 8, 2024, Pages 1239-1256,
AIAA SciTech Forum 2018, Kissimmee, Florida, Multi-Rotor Unmanned Aerial Vehicles, NASA Ames Research Center, American Institute of Aeronautics and Astronautics
8. Y.F. Lim, C. de Loubens, R.J. Love, R.G. Lentle, and P.W.M. Janssen. Flow and mixing by small intestine villi. April 2015 in Food & Function, Royal Society Of Chemistry, DOI: 10.1039/b000000x.
9. Othmane Benafan, Ph.D., SHAPE MEMORY ALLOYS– NOT YOUR ORDINARY METAL. High Temperature and Smart Alloys Branch, NASA Glenn Research Center, U.S.A, May 2020, www.nasa.gov
11. Hao, Y., Zhang, S., Fang, B. et al. A Review of Smart Materials for the Boost of Soft Actuators, Soft Sensors, and Robotics Applications. Chin. J. Mech. Eng. 35, 37 (2022). https://doi.org/10.1186/s10033-022-00707-2
14. Kangda, M.Z., Ubaid, A., Sathe, S. et al. Shape memory alloys: a resilient structural engineering material. Multiscale and Multidiscip. Model. Exp. and Des. 8, 251 (2025). https://doi.org/10.1007/s41939-025-00836-w.
15. Santosh S, Harris WBJ, Srivatsan TS. Environment-Induced Degradation of Shape Memory Alloys: Role of Alloying and Nature of Environment. Materials (Basel). 2023 Aug 17;16(16):5660. doi: 10.3390/ma16165660. PMID: 37629951; PMCID: PMC10456898.
16. Ganiev, S.R., Shmyrkov, O.V., Rudakov, V.P. et al. Studies on the Efficiency of a Flow Vortex Gas-Hydrodynamic Wave Machine Intended for Deep Purification of Industrial Gases from Solid Particles and Toxic Components. J. Mach. Manuf. Reliab. 53, 617–623 (2024). https://doi.org/10.1134/S1052618824701206.
18. Ferreira, P. M., Machado, M. A., Carvalho, M. S., & Vidal, C. (2022). Embedded Sensors for Structural Health Monitoring: Methodologies and Applications Review. Sensors, 22(21), 8320. https://doi.org/10.3390/s22218320.
A Comprehensive Review on Sources, Types, Impact and Challenges of Air Pollution. International Journal of Sustainability in Energy and Environment, Vol. 1, No. 1, 2024. https://ijsee.net/uploadfile/2024/IJSEE-V1N1-46.pdf.
20. S. Han, J. Kim, S.H. Ko. Advances in air filtration technologies: structure-based and interaction-based approaches. Materials Today Advances, Volume 9, 2021,
21. Rosalam Sarbatly, Jamilah Sariau, Mohammad Fahim Inteser Alam. Advances in nanofiber membrane. Materials Today: Proceedings, Volume 46, Part 5, 2021, Pages 2118-2121, ISSN 2214-7853. https://doi.org/10.1016/j.matpr.2021.05.483.
22. Jin Chen, Xi Chen, Dongxu Yan, Mingzhu Jiang, Wenjian Xu, Hao Yu, Hongpeng Jia. A facile strategy of enhancing interaction between cerium and manganese oxides for catalytic removal of gaseous organic contaminants. Applied Catalysis B: Environmental, Volume 250, 2019, Pages 396-407, ISSN 0926-3373, https://doi.org/10.1016/j.apcatb.2019.03.042.
23. Rui Li, Shefa Alomari, Timur Islamoglu, Omar K. Farha, Sujan Fernando, Selma Mededovic Thagard, Thomas M. Holsen, and Mario Wriedt. Systematic Study on the Removal of Per- and Polyfluoroalkyl Substances from Contaminated Groundwater Using Metal–Organic Frameworks. Environmental Science & Technology 2021 55 (22), 15162-15171. DOI: 10.1021/acs.est.1c03974
24. M.K. Mazumder, R. Sharma, A.S. Biris, M.N. Horenstein, J. Zhang, H. Ishihara, J.W. Stark, S. Blumenthal, O. Sadder. Chapter 5 – Electrostatic Removal of Particles and its Applications to Self-Cleaning Solar Panels and Solar Concentrators. Editor(s): Rajiv Kohli, K.L. Mittal. Developments in Surface Contamination and Cleaning. William Andrew Publishing, 2011, Pages 149-199, ISBN 9781437778854,
25. Jeong Young Park, How titanium dioxide cleans itself. Science 361, 753-753(2018). DOI:10.1126/science.aau6016.
26. Zhanpeng Sun, Huandi Yang, Kaixuan Zhang, Zhiyuan Wang, Zhenyuan Hong, Guang Yang. Self-cleaning effect and secondary swirling clean gas for suppressing particle deposition on vortex finder of gas cyclones. Particuology, Volume 90, 2024,
30. Pragyan Jain, R. S. Rajput, Sunil Kumar, Arti Sharma, Akshay Jain, Bhaskor Jyoti, Bora Prabhakar, SharmaRaman, KumarMohammad, Shahid Ali A. RajhiMajed AlsubihMohd Asif Shah*Abhijit Bhowmik. Recent Advances in Graphene-Enabled Materials for Photovoltaic Applications: A Comprehensive Review.
31. Luckring, J. M. (2019). The discovery and prediction of vortex flow aerodynamics. The Aeronautical Journal, 123(1264), 729–804. doi:10.1017/aer.2019.43
32. Techniques for Coordination of Drone Swarms. Autonomous Navigation of Drones. Satellite-Based Command and Control for Drone Operations. Wireless Data Transmission for Drone Operations. Mesh Networks for Multi-Drone Operations. 2025, GreyB Services. https://xray.greyb.com/drone-innovations
33. Franco DiGiovanni and Miguel Coutinho. IAIA – Guiding Principles for Air Quality in Environmental Impact Assessments. International Association For Impact Assessment, February 2017. https://www.iaia.org/downloads.
34. Bojdo, Nicholas & Filippone, Antonio. (2011). Performance Prediction of Inlet Barrier Filter Systems for Rotorcraft Engines. Journal of Aircraft. 48. 1903-1912. 10.2514/1.C031335.
Out now on OCTAVES Music Publications is the score and parts for a traditional string quartet of Violin 1, Violin II, Viola and Cello. Each of nature’s changing skies are uniquely and breathtakingly beautiful, from sunny to stormy and from dawn until dusk.
The composition is dedicated to the canvas of the atmospheric phenomena, is composed with tonal clouds. The overall expression should be sonorous & singing, with overtones. There is a freedom of expression for the musicians with the expansive chords. The total performance time of this modern quartet is around 14 minutes.
• Belt Of Venus is a soft pink atmospheric band that appears opposite the setting or rising sun, just above Earth’s shadow. • Cumulonimbus Virga represents voluminous clouds that releases streaks of rain that evaporate before reaching the ground. • Sunset Parhelion is a luminous halo, a holographic projection of light that appears on either side of the setting sun, like 3 suns, formed by ice crystals in high-altitude clouds refracting sunlight. • Noctilucence refers to the night shining high-altitude clouds that glow after sunset.
The sample recording recording with soft synth instruments is available on these and other online music platforms:
One of the latest collections explores Symbolism & Iconography in the Pop Art style, with a touch of glitch.
These are collected original photographs, many of statues, that are layered and accented with graphic design features and other botanical photographs.
It’s interesting to juxtapose the ancient and the modern, and technology with nature; to ponder these new meanings and synergies in our lives, and what we identify with. These are symbols, religious figures, and mythology from different traditions with a considerable amount of overlap. I am inspired by them so the collection is colorful and jubilant.
The series so far is: Angel Among The Roses, Wheel Of Becoming, Mary, Ganesha Green & Purple Versions, Shiva, Yin Yang, Jesus Ankh versions, Year Of The Snake, Dragon Medicine.
From Buddhism, to Christianity, to Taoism — there is much room for more exploration and expansion on this collection of conceptual photography. The high resolution versions can be printed on a variety of media.
For inquiries, please reach out through the contact page or e-mail: sarah.ikerd@studio-shangri-la.com.
Figure 1: Central Core Nonagon of LEDs with nanometer ranges
Abstract:
This modular and scalable optosonic system transforms waste into water using a novel integration of light, sound, shape, materials, and fluid dynamics. Powered autonomously via solar and battery storage, it features advanced illumination and sound cores, a rotating internal cylinder, multi-stage filtration, and eco-conscious construction. Inspired by natural processes like photo-degradation and nucleosynthesis, the design accelerates the breakdown of contaminants, yielding beneficial byproducts. This innovative solution aims to enhance public health, waste management, and environmental sustainability through a pioneering fusion of chemistry and civil engineering.
Light Core:
The central light core array is comprised of nine frequency bands, or wavelength ranges: 10-200 nm, 200-280 nm, 280-315 nm, 316-400 nm, 440-517 nm, 550-620 nm, 729-775 nm, 820-1300 nm, and 1300-1736 nm (Figure 1). These nanometer ranges were selected based on valence electron energy data collection for common elements Hydrogen, Carbon and Oxygen (Figure 2), and what it would take to ionize and reconfigure the atoms and molecules, focusing on the terminal groups of the polymer chains. In effect, to transmute the waste with precise low energy pathways. (1)
Photo-degradation is a natural and proven method for waste, as in landfills. However, the goal of this multifunctional reactor core is to accelerate and enhance that process. Another important principle this design is based on is electrophoresis, the movement of atoms and molecules as a result of energy absorption and emission, and the chemical reactions that occur with light exposure, or photochemistry. (2)
The selection of nine sides for the core corresponds to the frequency bands, and may also enhance distribution and reaction, given the increased surface area and angles. Like nature, the nonagon has characteristics of both symmetry and asymmetry. Many biological systems, like river networks or leaf venation, exhibit structured asymmetry for optimized transport.
Figure 2: Electron Ionization Potentials & Harmonic Multiples
Figure 2.5: Common light ranges in nanometers
Figure 3. Side view of core panel layers
Core Panels:
Waterproof Magnetic Speakers — Enable precise acoustic manipulation through acoustophoresis, ensuring that sound waves can influence particle movement effectively, even in a fluid environment. (3) Their waterproofing ensures longevity and stability in wet conditions.The speakers are flat to streamline efficiency and function.
Zinc Electrogalvanized Steel – This known photocatalyst provides structural integrity while offering corrosion resistance. The zinc coating further enhances durability, making it an excellent choice for maintaining conductivity, as wide band gap semiconductor, and ensuring efficient energy transfer in an environment exposed to reactive processes. (4) Steel is also known for it reverberant properties.
LEDs – The light source driving the photocatalysis, with wavelength tuning optimizing reactivity and energy efficiency. Ensuring that the LEDs operate synergistically would maximize constructive interference and photo-reactivity, notably with programmed pulsations for rapid degradation and transmutation. (5) (6)
Silicone Waterproofing – Acts as both a sealant and protective layer, preventing moisture damage while maintaining flexibility and thermal resilience. Since silicone is optically clear and chemically inert, it shouldn’t interfere with the photochemical reactions while still safeguarding internal components. (7) (8)
Figure 4. Trio of speakers on the central core with specifications.
Harmonic Series & Speaker Configuration:
Like the light waves, the sonic frequencies are based on valence electron ionization potential energies. The conversion here is from electron volts to nanometers to hertz (9) and then mapping the harmonic series across energy scales to manipulate light and sound interactions. By converting electron volts (eV) to nanometers for light, and then applying the harmonic series to drop into audible frequency ranges – this is bridging quantum mechanics with acoustics.
This concept aligns with studies in optosonic interactions, where light and sound induced resonance affects molecular structures. (10) Some research fields that connect to this include: Fourier Transform Spectroscopy, which decomposes light into its harmonic components; Sonoluminescence, where sound waves generate flashes of light at atomic/molecular levels; Photoacoustic Spectroscopy, which studies how pulsed light induces sound waves through thermal expansion.
Here the harmonic series acts like an energy ladder, allowing atoms to transition between states by absorbing or emitting light at specific frequencies. Each harmonic corresponds to a resonant excitation, guiding atoms through successive energy levels. This concept is fundamental in: Multi-photon absorption, where atoms absorb multiple photons sequentially to reach higher states; Raman Scattering, where energy shifts create distinct transitions that follow harmonic relationships; coherent light-matter Interactions, as discussed in the reference 10 paper —nonlinear effects entangle harmonics and material states to tune energy levels dynamically.
This idea ties directly into quantum optics and attosecond physics, where carefully structured light pulses can orchestrate atomic/molecular behavior.
The low frequency sounds selected for the light core – theoretically correspond to energies theoretically of Hydrogen, Carbon and Oxygen. (11) They are 50, 63, and 219 hz, recognizing there could be multiple ‘correct’ answers. These speakers are located on the panels opposite the UVX, UVA and visible Red light. Instead of ultrasonics, this represents subsonics and infrasonics, and achieving molecular “vibrational relaxation.” (12) If the device is the system ‘Q,’ the ‘bath’ is the combined elements of sound, light, movement and mechanical pressure. The bath provides the optimal environment for electron transfer with the degrees of freedom that would perpetuate water, from solids to liquid, and from liquid to gas – Hydrogen and Oxygen, and keeping the simple, natural 2:1 ratio.
Figure 5. Dimensions and materials of the outer housing of the receptacle, with construction notes.
Exterior Shape:
The most significant larger features of the exterior are the shape, material and coating. The proportion of the rectangular prism is a Pythagorean Golden Rectangle for stability and durability, and for the Flow Optimization of the logarithmic spiral, associated with the golden ratio. That may help in these fluid dynamics, potentially improving the efficiency of water and waste movement. The well-proportioned receptacle can also reduce blockages, prevent stagnation and ensure continuous movement. Optimized flow paths can also minimize resistance, requiring less energy for waste processing. And the golden ratio can help evenly distribute incoming waste and water, improving filtration and separation. (13)
Figure 6. Basic layout and sample design of the front of the receptacle with waste deposit.
Exterior Materials:
It’s important to note that the exterior material and coating need to be durable, radiation resistant and acoustically dampening. The main materials here include Titanium, which naturally oxidizes into known photocatalyst Titanium Dioxide. (14) And the reactor core has corrosion resistant panels of Zinc Electrogalvanzied Steel. Also part of the exterior, is a graphene coating for the radiation resistance and durability. Graphene is also known to enhance electroconductivity. (15) The combined materials are selected to improve and enhance the overall performance, leaving room for composite material modifications.
Figure 7. Interior and exterior of rear water purification panel.
Interior / Exterior Utility & Components:
Aside from the rather obvious design features of the water dispensation on the receptacle, it is suggested that the interior tubing connected to the water tank be spiral silicone, possibly embedded with activated carbon or zeolites for purification. (16) (17)
Bearings and flexible coupling, wire mounts, conduits and other components are composed of high-performance and eco-friendly materials such as composite polymers to ensure smooth operation, sustainability and longevity.
Figure 8. Configuration of central cylinder with entry chute within the LED nonagon core, including notes on materials and component interactions.
Cylinder & Water System:
The independently rotating cylinder inside the reactor core is constructed from a coated durable, transparent, corrosion-resistant material such as silica glass. The water filtration system integrated underneath the stationary light core and vortex cylinder, are designed to purify and recycle water for dispensation, and after it drains.
Tapping into cutting edge photonics, it’s theoretically possible that the spinning cylinder, when paired with the strategically modulated LEDs, could generate spatiotemporal optical vortices (STOVs) — especially if the light pulses are structured to carry transverse orbital angular momentum. (18) (19) These vortices are essentially wave packets where the phase and energy circulate in both space and time, forming dynamic toroidal fields that could indeed become part of the ‘bath’ environment inside the receptacle. This vortex cylinder, inspired by chirality in nature, could open up fascinating possibilities for both general light-matter interaction, and here specifically for waste breakdown, or the biosynergetic transmutation of molecules. These aforementioned elements and references directly support the use of a vortex-inducing geometry and structured light pulses for transmutation processes. Returning to the mechanical design, the trash chute feeding in to the cylinder can be made of a flexible, tear-resistant material such as silicone or reinforced rubber, to maintain alignment and accessibility during cylinder rotation. There is a motion sensor system to detect the deposit of waste in the cylinder and initiate the process, and the independently rotating cylinder includes an anti-jamming mechanism to prevent blockages and ensure smooth operation. Another interesting synergy is the built-in self-cleaning mechanism that utilizes the low-frequency sound waves and rotation to dislodge and remove debris from the cylinder.
The entire water filtration system includes a double walled stainless steel tank, integrated filtration and pump, activated carbon and zeolites of the tubes, and the UV sterilization effects. This amounts to automatic water recycling to ensure continuous availability of clean water for drinking and for self-cleaning. The combination of activated carbon and zeolites mirrors nature’s own tiered filtration systems—like how forest soil layers handle runoff.
Another important feature, not pictured here, could be a simple rainwater collection mechanism, such as a canal that feeds into another tube, also as a backup water supply.
Figure 9. The receptacle’s solar power system installed on the top panel.
SOLAR POWER SYSTEM
The circularity of the receptacle is further comprised of a solar power unit that is connected to the frequency generator, speakers and control panel for operational control. The power unit includes a rechargeable solar power battery system to provide uninterrupted power supply. The water filtration system, cylinder motor and all components are powered by the rechargeable solar battery system.
Screenshot
Figure 10. Side control panel with frequency generator, ventilation and descriptions.
Control Panel & Frequency Generator:
The frequency generator and control panel are mounted on a side shelf next to the reactor core. For space saving, minimizing wires, and modularity, there is also a wireless power transmission unit connected to the solar battery, for powering components through electromagnetic induction. (20)
Conclusion & Overview:
This modular, off-grid waste-to-water receptacle integrates light and sound-based technology to transform trash into clean water. Inspired by biomimicry, it features nine light panels and harmonically tuned speakers that correspond with elemental energies—particularly hydrogen—to activate photocatalytic and sonochemical processes.
Constructed with sustainable materials like titanium and galvanized steel, and shaped using the golden rectangle and nonagon geometry for optimal energy efficiency, the unit runs on solar power and operates autonomously. A motion-activated system initiates a near-continuous purification cycle, using safe, low-frequency sound and visible light to avoid disturbing people or animals.
Internally, a rotating core, eco-friendly filtration, and stainless steel cooling chamber enhance performance. Designed for public safety, accessibility, and aesthetic appeal, this solution exemplifies circular waste management—removing trash while producing water—through cutting-edge photochemistry and acoustophoresis.
References:
H.Y. Jiang et al, “Polymers Move in Response to Light”, (Advanced Materials, 18, 2006), 1471-1475, DOI: 10.1002/adma.200502266.
Thijssen, Quinten, Joshua A. Carroll, Florian Feist, Andreas Beil, Hansjörg Grützmacher, Martin Wegener, Sandra Van Vlierberghe, and Christopher Barner-Kowollik. 2024. “Beyond Absorption Maxima: The Impact of Wavelength-Resolved Photochemistry on Materials Science.” *Materials Horizons* 11 (24): 6184-6191. https://doi.org/10.1039/D4MH00976B.
14. Nematov, Dilshod, Titanium Dioxide and Photocatalysis: A Detailed Overview of the Synthesis, Applications, Challenges, Advances and Prospects for Sustainable Development (November 03, 2024). Available at SSRN: https://ssrn.com/abstract=5006623 or http://dx.doi.org/10.2139/ssrn.5006623.
15. Shang-juan Yang, Yun Cao, Yan-bing He, Wei Lv, “A review of the use of graphene-based materials in electromagnetic-shielding,” New Carbon Materials, Volume 39, Issue 2,
16. Faez Abdulmohsin Al-Kathili and Doaa Hameed Khalaf. “Spiral tube flocculation for drinking water treatment plants.”, Head of department of designing, Al-Turath University, Baghdad, Iraq, Department rapporteur/ department of designing, Al-Turath University, Baghdad, Iraq. GSC Advanced Engineering and Technology, 2022, 04(01), 059–071. 05 September 2022. Article DOI: https://doi.org/10.30574/gscaet.2022.4.1.0052.
17. Kazempour, A., Bagheri-Mohagheghi, M.M. Activated Carbon/Zeolite Hybrid Nanocomposite for Drinking Water Treatment Applications: Structural, Optical, and Surface Adsorption Properties. Water Air Soil Pollut 234, 669 (2023). https://doi.org/10.1007/s11270-023-06676-z
18. Chong, A., Wan, C., Chen, J. et al. Generation of spatiotemporal optical vortices with controllable transverse orbital angular momentum. Nat. Photonics 14, 350–354 (2020). https://doi.org/10.1038/s41566-020-0587-z
Red Maple Forest by Sarah Ikerd, Studio Shangri-La
Natural Chemistry by Sarah Ikerd
Maple Duotone by Sarah Ikerd
Coffee Arrivals by Sarah Ikerd, Studio Shangri-La Multimedia
Urban Canopy Triptych by Sarah Ikerd, Studio Shangri-La Multimedia
There is a lot of new work this month in May, with more to be posted!
This particular group in the slideshow represents an ornate, rococo style of tree canopy photography. The layouts are decidedly baroque. And this is all original photography using various programs for editing.
One topic that appears here is the amazing chemistry of earth science, and the balance of ecosystems. Nature is of course already quite beautiful. These layer on style and multidimensionality for bringing nature indoors. Another subject presented here is food – specifically coffee – and the modern whimsy could fit a restaurant or someone’s kitchen. These selections are intended for hi-res large format presentations, yet there are many choices.
While the site is under construction, please refer to the Sarah Ikerd / Studio Shangri-La catalogs on TurningArt (commercial) and Saatchi Art (individuals).
In more news, the first album release of 2025 * Artemis Amenti – Fortune * from OCTAVES Music is forthcoming. It’s a ten track album that features rock, pop, electronic, and folk. Feel free to read the title also as “For Tune!”
Grand Cirrus Arc by Sarah Ikerd, Studio Shangri-La
Cirrus Arc by Sarah Ikerd, Studio Shangri-La
Ka by Sarah Ikerd, Studio Shangri-La
Victory Stele by Sarah Ikerd, Studio Shangri-La
The Winged Heart by Sarah Ikerd, Studio Shangri-La
Earth Mudra by Sarah Ikerd, Studio Shangri-La
Like A Melody by Sarah Ikerd, Studio Shangri-La
New pieces so far in May 2025, continue a nature focus with a hi-tech flair.
The Cirrus Arc selections explore on a large scale modern cubism to express the motion of atmosphere, especially the arc or Fibonacci like spiral.
The spiral theme continues also with the works including the Triskelion. The Triskelion is a piece of burned tree that I originally photographed in the Colorado Rockies. In The Winged Heart, Earth Mudra and Ka it takes on different depiction of soul, layered with other photographs and graphic design elements. A number of adjectives could be used here, namely ‘conceptual.’
Ka is an Egyptian word for soul, emphasized by the presence of the Hawk, often appearing in hieroglyphics. Earth Mudra is based on the yogic or ayurvedic Prithvi Mudra hand gesture associated with earth, groundedness and vitality. The triskelions are the hands in this piece, and a further expression of the spiral form. The Winged Heart is a popular symbol of Sufi mysticism and soul, of the spirited lightness of being. So, an interesting combination of earthy connectedness and spiritual brightness.
Victory Stele is mainly symbolic and the result of an interesting chain of happenstance. One of my other photographs came up on my phone as a “Landmark,” the Akkadian Victory Stele of Naram-Sin from ancient Mesopotamia. What’s especially funny is that the sunlike or flowerlike symbolisms atop the original Stele reminded me of a couple of photos I’d taken of metal etchings. So, I edited them to look the like Victory Stele, perhaps the victory of soul, and made them in the same color scheme as the layered triskelion pieces. Overall, a nice symbolic group.
Like A Melody continues the sky, science and weather theme with a touch of the musical. That’s after all a reality of physics, that music is a language of the cosmos. This one is also a forthcoming album cover on the label, OCTAVES Music. The sky pieces have proven quite popular with the combination of original photography and futuristically understated graphic design.
What I’m really also enjoying about Ka is that it steps more into surrealism, by a making a statement from a few photographs I’ve taken and hopefully more pieces work out like this.
All of these are available direct with many possibilities for customization. When someone orders direct, I make an effort towards sustainable and non toxic production. There are also more specific customizations that I can do.
These are also available through my partners TurningArt and SaatchiArt that respectively service businesses and individual customers. I’ve had the delight of working with both, and am feeling very inspired to contribute to public art in particular, that goes beyond the gallery to enhance many different types of spaces.
The latest mixed media “Carbon 666” is named for the 6 protons, 6 neutrons and 6 electrons in a Carbon atom, or C6 on the periodic table. What in the past was superstitiously and paradoxically considered an ominous number in some traditions, actually reflects the now more well understood magic of chemistry, though there is much more to learn, and is presented here as godly.
Fully upcycled, except for the gloss and gesso, “Carbon 666” is made of packaging materials from various shipments. The ‘canvas’ is made of Styrofoam, while the textured top is cardboard, accented with silver Amazon freezer bags. The black parts are charcoal – with a little bit of ash from matches – another form of Carbon in the vast array of organic molecules that it can create.
Perhaps obviously, the design is the basic layout of a Carbon atom, and it’s floating atop the substrate of the electromagnetic field. Light, the shiny silver, is part of the field, and moves like a wave. And the overall theme is to see the beauty of it, to understand rather than circulate silly or fearful superstitions.
“Bring the magic,” a collaged line, refers to the miracles of chemistry and cosmic benevolence that brought us here, and the continued voyage of all life. An interesting related concept here is hysteresis, “the dependence of the state of a system depending on its history.” (Wiki)
To better understand the elements is in a way understanding ourselves, and unlocks further knowledge, as everything evolves. And I find in science with its themes, patterns and geometries, a gateway to spirituality and reverence. I feel more cosmically connected when I reflect on these topics.
Carbon is one the oldest elements in the universe and an essential building block of life, and takes so many different forms, from stars to human beings. The allotropes of carbon range from diamond, to graphite to graphene and amorphous.
Carbon is a key player in the story of the universe. While hydrogen and helium were the first elements, carbon came into existence a bit later—produced in the cores of massive stars through nuclear fusion.
Widespread distribution by celestial bodies allowed carbon to become an essential building block for planets, life, and the vast complexity of chemistry we see today. It’s really quite poetic— carbon’s journey from the hearts of stars to becoming part of living beings like us. It’s a cosmic connection that makes stargazing feel deeply personal.
While there’s a bit much Carbon Dioxide in the atmosphere from fossil fuel emissions (just stop burning it & plant more plants to use CD for photosynthesis!), “Carbon 666” expresses the divine design and remembering the importance of all elements, their meaningfulness and usefulness, as all materials being part of God. It’s amazing how we continue to interact in sculpting our surroundings.
The artwork is one-of-a-kind repurposing of materials and it’s available in the shop, as well as TurningArt and Saatchi Art. For further inquiry, please e-mail: sarah.ikerd@studio-shangri-la.com.
Earth Month is the perfect time to embrace small yet impactful changes that contribute to both local and global sustainability. Here are five accessible actions to help build a more eco-conscious future—because even small shifts make a difference. Personally, I’ve enjoyed switching to bamboo toilet paper—it’s soft, sustainable, and a meaningful choice. Composting has also been a satisfying way to turn my food scraps into fuel for urban gardening, through the composting service Garbage To Garden.
Smart Shopping – Attention To Materials & Ingredients
Paying attention to the packaging and ingredients when you’re shopping can make a difference in your health, and in shifting the trends of the marketplace. It’s important to check for unnecessary additives for health reasons and for warning labels for health reasons, while industry catches up. What we buy or don’t buy makes a difference.
Mindful consumption can also include like choosing products with minimal or biodegradable packaging, opting for locally sourced goods to cut down on transportation emissions, and looking for ethical certifications like Fair Trade and Cruelty-Free labels.
Ball Aluminum CupsCommunity garden, Somerville
2. Compost & Gardening
Signing up for a doorstep delivery compost service, of which there could be several, depending on your location, is a wonderful way to reduce, reuse and streamline waste. Composting food scraps reduces landfill waste and enriches soil naturally. Participating in community gardening also or gardening in one’s own yard or apartment area can also bring a lot of local environmental benefit and beautification, especially with the satisfaction of growing your own food, which can also be shared. Growing one’s own herbs, fruits, or vegetables will definitely cut down on packaging waste and transportation emissions. Using native plants also supports local pollinators and overall balance of the ecosystem, as well as being easier to care for because they’re naturally adapted to their surroundings.
Eco Soul Bamboo Toilet Paper & Green Forest Bamboo Paper Towels
3. Bamboo or Tree Free Paper Products
Make a significant difference for reforestation, by switching to bamboo or other alternative paper products, such as Kaboo or Honeycomb bamboo toilet paper. Recycled paper is another great option by repurposing and lowering energy, yet bamboo grows quickly and also absorbs more carbon dioxide. Then, there’s a growing number of alternative papers that repurpose agricultural byproducts, like hemp, sugarcane, fruits peels, pits and husks. To go the extra mile, research brands to ensure they use ethical harvesting methods and non-toxic processing.
Tree-free or recycled printer paper, notebooks and stationery, are also positively impactful choices. They can be made from materials like bamboo or recycled fabric pulp. And a notable art company making fine tree-free papers is Hahnemühle.
First of all, it’s great to know your local recycling options and rules – Recycling guidelines vary by city, so check which items are accepted for best efficiency and acceptance. Then, as before mentioned, separate Organics – composting food scraps for local community gardens keeps waste out of landfills and enriches the soil and overall local ecosystem.
Next, Repurpose & Donate – Before throwing items away, consider if they can be reused, repaired, or donated. For a small example, a textile could be used as a household cleaning cloth. Fabric cloths or wash cloths also further reduce waste by replacing the likes of paper towels.
These days it also helps to be mindful of e-waste – Electronics contain valuable materials but require special recycling—and many cities have drop-off programs for phones, batteries, and old devices. Some stores like Staples even have incentive in the form of store credit for bringing in electronics. Overall, recycling electronics reduces toxic waste and prevents pollution.
Biscayne Bay, Florida
5. Going Solar / Electric
The small steps matter, like simply choosing green energy providers or city programs in one’s area. From there other steps that apply could be taken, like installing incentivized solar panels, or upgrading to an electric vehicle. If not a vehicle, just walk more or choose electric rideshares. There’s a lot of small choices that can add up and make a big difference. Happy Earth Day, Week & Month!
A Clownfish Amidst An Anemone – Visual Created with Adobe AI
There is a necessary economic transformation happening towards a Circular Economy to keep us thriving on Earth. A circular economy is an economic system focused on minimizing waste and maximizing resource efficiency by recycling, reusing, and regenerating materials.
With a systems thinking approach to economy and commerce, there can be leaps and bounds of innovation in manufacturing and public services, that also serve the planet. In effect, technologies become more infinite and reach promisingly into the future with longevity.
In effect, technologies become limitless or infinite, reaching promisingly into the future with longevity. A circular company cycles seamlessly, accounting for every step of the lifecycle, producing valuable offshoot products, and replacing or resynthesizing what it uses.
Industrial symbiosis is a very important part of achieving this. And the collaboration of companies, turning each other’s waste or byproducts into resources and other products, becomes a business ecosystem.
A Clownfish Amidst An Anemone – Visual Created with Adobe AI
The included photos here are of one of nature’s best known and clever symbiotic relationships: The Clownfish and the Anemone. Both entities benefit — just as the clownfish gains protection and the anemone thrives from nutrients — showing how interconnected partnerships build stronger and healthier systems.
The Anemone: This could represent companies or industries that provide byproducts or waste materials with potential value, like a manufacturer generating excess energy or leftover materials during production. They act as a “host” offering resources that others can use.
The Clownfish: These would be the companies that creatively repurpose the byproducts or waste, transforming them into new products or services.
For some examples, a desalination plant can supply brine, a byproduct, to a partner company that extracts valuable elements and minerals like salt, magnesium or lithium, reducing waste and creating additional economic value.
A waste management companies can recycle glass, turning it into raw material for glass bottling companies, closing the loop and reducing environmental impact.
Also, organic waste processed by waste management companies can be converted into biogas or electricity, powering industries or communities sustainably. There are many possibilities for these types of relationships.
While seamless systems aren’t necessarily guaranteed, aiming for them with thoughtful design, innovation, and collaboration can definitely bring us closer and vastly benefit environment and public health. After all, optimism paired with action has historically created leaps in technology and society. In recent and present history, the shift to electric vehicles. Here’s hoping for more leaps that are as harmonious as they are transformative.
The clownfish and anemone are shining examples for us of nature’s brilliance, showcasing harmony and mutual benefit in the most captivating way. And it’s possible to draw even more inspiration from, and care for, Earth’s intricately balanced ecosystems for human innovation and collaboration.
Nature has been a genius of resource efficiency long before we ever coined terms like “circular economy.” And nature truly has endless lessons to teach us — one masterpiece at a time. Happy Earth Month every month.
A Clownfish Family Tidying An Anemone – Visual Created with Adobe AI
Endnote: Humanity’s journey from survival-driven instincts to intellectual growth and compassion is truly remarkable. While we still grapple with remnants of those primal cycles, the ability to empathize, create, and protect shows how far we’ve come.
