Comparing the Complete Evidence Base
A new field survey does not enter the STRATA platform as an isolated report.
BRAD can immediately compare its findings with a growing evidence base from slag, tailings, ash, mine residues, contaminated carbon and other materials across the Misplaced Carbon Spectrum.
As the platform develops, this evidence base can include hundreds and eventually thousands of:
- Field surveys.
- Stakeholder workshops.
- Material analyses.
- Laboratory programmes.
- Field CSTR trials.
- Worker-proliferation results.
- Slurry application programmes.
- Recovery and remediation outcomes.
BRAD can compare mineralogy, chemistry, particle size, pH, target concentration, contaminants, worker selection, proliferation rate, Field CSTR conditions, energy demand, treatment time, recovery yield and downstream separation performance.
It can identify comparable cases, important differences, probable performance ranges and the evidence still required before investment proceeds.
This does not treat every slag heap or tailings deposit as identical. It allows every new material to benefit from everything the platform has learned before.
BRAD can recognise patterns across hundreds of applications that no individual project team could retain manually. Its output is not a promise of one guaranteed number. It is a progressively stronger range of probable outcomes supported by comparable evidence and clear decision gates.
That is how BRAD takes the guesswork out of recovery.
Phase 2 — Putting the Aerobic Capability to Work
At Phase 2, Syngas Project puts the Fermentation CAMPUS Aerobic Capability to work as an industrial service.
The STRATA Biofoundry develops aerobic Field Workers: microorganisms selected, prepared and combined to perform practical recovery and remediation tasks.
Factory Workers remain within the Fermentation CAMPUS to manufacture products. Field Workers are prepared at the CAMPUS and deployed as Worker Slurries through controlled Field CSTR systems.
This is the foundation of the STRATA Worker Slurry business.
Syngas Project supplies:
- Selected aerobic Field Workers.
- Validated starter cultures.
- Worker Slurry formulations.
- Field CSTRs.
- Slurry preparation and storage tanks.
- Aeration and sparging requirements.
- Operating protocols.
- Quality control.
- Biological monitoring.
- Capability maintenance.
PowerCan deploys:
- Field electrical power.
- Field fuel supply and management.
- Pumps and process controls.
- Aeration and supporting utilities.
- Mobile laboratory capability.
- Site offices and mess facilities.
- Welfare and operating support.
- Due-diligence infrastructure.
- Ramp-up and execution support through completion.
Together, Syngas Project and PowerCan convert CAMPUS Microbial Capability into a powered, scalable and measurable field service.
How the STRATA Field System Works
Every project begins with a stakeholder problem and a target material.
BRAD helps define what material is present, what value or contaminant is being targeted, where the work must take place, what evidence is required and how success will be measured.
STRATA then characterises the material’s mineralogy, chemistry, particle size, pH, contaminants and recoverable value.
BRAD compares the survey with related cases across the platform. A new slag survey can be tested against earlier slag chemistry, microbial response, power demand and recovery results. The same comparison can be made for tailings, ash, mine residues and contaminated-carbon applications.
BRAD identifies the closest comparable cases and highlights where further sampling, laboratory work or Field CSTR testing is required.
It also searches the scientific originator field for organisms, consortia, enzymes and emerging editing systems relevant to the task. Existing capabilities can be selected, licensed or developed with specialist partners.
The Biofoundry tests their performance, combines complementary workers and establishes the correct operating environment.
The 25-litre carboy contains a validated starter culture. It inoculates a Field CSTR, where the microbial workforce is expanded under controlled aerobic conditions and prepared as a Worker Slurry.
Depending on the application, the Field CSTR may supply:
- Active microbial workers.
- Biological acids.
- Regenerated ferric iron.
- Chelating compounds.
- Enzymes.
- Conditioned process liquor.
Once the workers have mobilised the required elements, conventional recovery systems complete the process. These may include precipitation, filtration, ion exchange, solvent extraction, electrowinning or other separation technologies.
Biology opens the material. Engineering recovers the value.
PowerCan Worker Slurry System — How It Works
PowerCan provides the field operating environment that allows the CAMPUS Aerobic Capability to proliferate and move into industrial service.
The system is formed around two connected elements:
- Field CSTRs, which receive the CAMPUS starter culture and accelerate controlled culture proliferation.
- PowerCan slurry tanks, which receive the proliferated workers, maintain the Worker Slurry and build the field inventory required for execution.
1. CAMPUS Starter Culture
Syngas Project supplies the selected aerobic Field Workers from the Fermentation CAMPUS.
The starter culture arrives with its defined Microbial Capability, quality-control record, nutrients, operating parameters and site-specific proliferation protocol.
2. PowerCan Pre-Ramp Mobilisation
Before full execution, PowerCan establishes the on-site field base.
This includes temporary power, fuel, controls, pumps, aeration, a mobile laboratory, site mess, welfare facilities and the first slurry tanks.
These first PowerCan slurry tanks establish the initial on-site Worker Slurry capacity while the biological system moves through pre-ramp.
3. Field CSTR Proliferation
The Field CSTRs inoculate and expand the CAMPUS starter culture under controlled aerobic conditions.
Temperature, nutrients, oxygen, mixing, pH and residence time are managed to increase the Field Worker population without losing the required capability.
The CSTRs continuously support the first PowerCan slurry tanks with proliferated culture.
The slurry tanks are therefore not passive storage. They form part of a managed biological ramp-up system supplied by the Field CSTR nursery.
4. Progressive Slurry Tank Ramp-Up
As the Field CSTRs increase culture production, additional slurry tanks are brought online.
Worker Slurry inventory grows in controlled stages while laboratory testing confirms activity, stability and performance.
The ramp-up rate is matched to the treatment area, target material, application rate and required recovery programme.
BRAD compares real proliferation, energy demand and field-performance data with the planned recovery model.
5. Full Worker Slurry Execution
Once the required biological inventory and performance thresholds have been achieved, the system moves into full execution.
PowerCan maintains the power, fuel and field utilities. Syngas Project maintains the workers, Field CSTRs, slurry tanks, operating protocol and quality control.
Worker Slurry is supplied to the target material at the required rate while the Field CSTRs continue to proliferate culture and support ongoing demand.
6. Completion and Verification
The field laboratory monitors worker activity, treatment progress, recovery yield and completion evidence.
Results return to BRAD, where they are compared with the original application case and retained for future projects.
The complete sequence is:
CAMPUS Starter Culture → Field CSTR Proliferation → First PowerCan Slurry Tanks → Progressive Tank Ramp-Up → Full Worker Slurry Execution → Completion and Verification
BRAD — Selecting the Best Recovery Window
Some materials should be recovered now. Others may become substantially more valuable when a stronger microbial worker, more selective consortium or improved separation process reaches the required level of performance.
Re-mining too early can commit an asset to lower recovery, higher energy demand or insufficient selectivity.
Waiting without an active intelligence system can also allow an opportunity to be missed.
BRAD manages the space between these two risks.
For each prospective site, BRAD can maintain a living application case containing:
- Material inventory and mineralogical profile.
- Metals, minerals or carbon currently recoverable.
- Performance threshold required for commercial recovery.
- Most relevant microbial workers.
- Originator development programmes.
- Expected direction of the next worker generation.
- Field CSTR and Worker Slurry requirements.
- PowerCan power, fuel and utility requirements.
- Recovery prices and operating costs.
- Probable project outcomes.
- Evidence required to move into due diligence, pilot and execution.
As the originator field progresses, BRAD reassesses the material against the improving capability curve.
It can identify when a site should remain under observation, when due diligence should begin, when a pilot Field CSTR is justified and when conditions support full re-mining or remediation.
This turns technological progress into project-timing intelligence.
The objective is not to predict one guaranteed scientific outcome. It is to manage a range of probable outcomes and preserve the opportunity to act at the most favourable point.
That is the prudent role of Syngas Project as a global platform developer, operator and service provider.
The STRATA Worker Families
01 — Wild Scout
Wild Scout is the discovery workforce.
It begins with naturally occurring microbial communities collected from mine drainage, tailings, industrial residues, contaminated soils and other demanding environments.
Some oxidise iron or sulphur. Others produce organic acids, attach themselves to mineral surfaces or tolerate unusually high concentrations of metals.
Wild Scout provides the biological starting point from which a site-specific recovery capability can be selected and developed.
02 — Iron Runner
Iron Runner maintains one of the fundamental engines of biomining: the ferric-iron cycle.
Iron-oxidising microorganisms convert ferrous iron into ferric iron. The regenerated ferric iron then attacks metal sulphide minerals and helps transfer valuable metals into solution.
The workers are not simply recovering iron. They continually renew the oxidising agent required by the wider leaching process.
03 — Copper Lifter
Copper Lifter applies selected iron- and sulphur-oxidising workers to copper-bearing ores, historic tailings and suitable industrial residues.
The workforce generates the ferric iron and acidic conditions needed to break down copper sulphide minerals. Copper enters the process liquid and can then be concentrated and recovered through established hydrometallurgical equipment.
Copper bioleaching is already practised commercially. STRATA’s opportunity is to make the capability more adaptable to low-grade, dispersed and complex materials.
04 — Sulphur Driver
Sulphur Driver is the biological acid-production workforce.
Sulphur-oxidising microorganisms convert elemental sulphur and reduced sulphur compounds into sulphuric acid. This establishes and maintains the low-pH environment required by many metal-mobilisation processes.
The microbes can produce active process liquor in the Field CSTR for controlled delivery to the target material.
05 — Nickel Finder
Nickel Finder targets nickel- and cobalt-bearing sulphides, tailings, concentrates and selected secondary materials.
Its workers oxidise iron and sulphur, open the mineral structure and move nickel and associated metals into the liquid phase.
The consortium is selected after detailed mineralogical analysis because each nickel resource behaves differently. The recovery liquor then passes to a separation system capable of distinguishing nickel, cobalt, iron, magnesium and other constituents.
06 — REE Gatherer
REE Gatherer addresses the growing rare-earth recovery opportunity.
Fungi and bacteria can produce citric, oxalic and other organic acids that dissolve mineral phases and bind metal ions. Other workers contribute biosorption, selective surface binding and resistance to demanding process conditions.
Potential feedstocks include mine tailings, phosphatic materials, coal ash, electronic residues and other secondary resources.
07 — Ash Miner
Ash Miner addresses mineral-rich ash from combustion, gasification and other thermal processes.
Depending on its origin, ash may retain phosphorus, zinc, copper, rare-earth elements and other recoverable materials.
Organic-acid-producing and phosphate-solubilising workers help release these constituents from the mineral matrix. The remaining fraction can then be assessed for treatment, stabilisation or productive reuse.
08 — Slag Walker
Slag Walker targets steel, non-ferrous and other metallurgical slags.
These materials may contain iron, manganese, chromium, vanadium, phosphorus and valuable minor constituents.
The slag can be aged, ground or conditioned while the Field CSTR produces the biological acids and leaching compounds required by the process. Biology can also be combined with carbonation and mineral stabilisation to improve the remaining material.
09 — Tailings Worker
Tailings Worker is a configurable consortium for historic mine tailings and mineral-processing residues.
These deposits often contain significant quantities of metal that earlier technology could not recover economically. They can also create long-term environmental liabilities.
The selected workforce may combine iron oxidisers, sulphur oxidisers, organic-acid producers, biofilm formers and metal-tolerant organisms.
The objective is dual: recover residual value and reduce the environmental burden of the material left behind.
10 — Carbon Cleaner
Carbon Cleaner addresses oils, hydrocarbons and suitable industrial organic contamination.
Selected Rhodococcus, Pseudomonas and Bacillus workers can use hydrocarbons as sources of carbon and energy. Within the correct aerobic environment, they transform complex contamination into simpler compounds, biomass, water and carbon dioxide.
Carbon Cleaner extends STRATA beyond mineral recovery into biological remediation and the restoration of misplaced or damaged carbon environments.
11 — Elite Cocktail
Elite Cocktail combines complementary workers into one selected consortium.
One organism may generate acid. Another may regenerate ferric iron. A third may attach the workforce to a mineral surface, while a fourth consumes compounds that would otherwise inhibit the process.
This allows STRATA to address complex materials through microbial teamwork instead of expecting one organism to perform every task.
12 — Bespoke Designer Pack
Bespoke Designer Pack is the complete site-specific Microbial Capability.
STRATA characterises the material, identifies the required biological functions, screens candidate workers and constructs the most suitable consortium.
The capability is then validated against the real feedstock and integrated with the Field CSTR, slurry tanks, PowerCan utilities and downstream recovery equipment.
BRAD records the stakeholder requirement, originator technologies considered, trials completed, Worker Slurry formulation, field configuration, energy demand and verified performance.
BRAD also retains capabilities that were considered but were not sufficiently advanced. As originators improve those workers, BRAD can reopen the application case and determine whether the project has entered a better recovery window.
CRISPR — Precision Control of the Workforce
CRISPR has transformed microbial engineering by allowing originators to make targeted changes to microbial DNA.
It can remove an unwanted function, insert a useful pathway or adjust the activity of existing genes.
Within STRATA applications, CRISPR-developed workers could offer:
- Greater acid tolerance.
- Improved metal resistance.
- Stronger organic-acid production.
- More effective biofilm formation.
- Better metal-binding capability.
- Greater stability under field conditions.
Syngas Project does not need to become the scientist performing every edit. BRAD keeps STRATA connected to the originators developing these tools and helps translate their discoveries into engineered Microbial Capabilities.
TIGR — The Emerging Generation
TIGR-Tas is a newly discovered family of RNA-guided DNA-targeting systems.
It uses paired guide regions to recognise the two strands of a DNA target. TIGR proteins can be considerably smaller than Cas9, and some appear able to reach DNA sequences without the PAM restriction associated with many CRISPR systems.
Smaller and more flexible editing systems may allow Biofoundries to work with a wider range of non-model organisms, including microorganisms whose useful natural capabilities have been difficult to access using the present generation of tools.
The speed with which new editing systems are being discovered and adapted suggests that movement into practical microbial engineering could happen quickly.
CRISPR established programmable gene editing. TIGR demonstrates that nature contains many more programmable systems waiting to be discovered.
BRAD and AI-Designed Biological Capability
BRAD is the AI orchestration layer above CRISPR, TIGR and the editing tools that follow them.
BRAD does not physically edit an organism. It maintains the complete engineering picture and helps determine:
- What capability is required.
- Which originator may provide it.
- Which development route should be tested.
- What Field CSTR conditions will be needed.
- How much energy the field system will consume.
- Which recovery technology must complete the process.
- What evidence will demonstrate success.
- When the best recovery window has arrived.
AI can compare genomes, predict protein functions, analyse metabolic networks and identify combinations of changes that would be extremely difficult to discover through manual analysis alone.
Specialist laboratories and Biofoundry partners can build and test the candidates. The CAMPUS incorporates the best validated performers into Syngas Project’s Aerobic Capability.
PowerCan takes the workers, Field CSTRs, slurry tanks and supporting utilities to the application.
Performance data returns to BRAD for the next design cycle.
BRAD does not replace the microbial scientist, technology originator or physical editing tool. It connects stakeholder demand, discovery, design, engineering, testing, deployment and field performance into one continuously improving system.
A Multi-Billion-Euro Worker Slurry Industry
Industrial biology is advancing at exceptional speed.
Genome sequencing that once required years can now be completed rapidly. CRISPR has made targeted microbial engineering routine across a growing range of organisms. TIGR and other compact RNA-guided systems are expanding the available toolbox.
AI can compare possible hosts, pathways and interventions at a scale no individual project team could examine manually.
The individual components of the STRATA vision exist today:
- Biomining.
- Microbial consortia.
- Worker Slurries.
- Controlled fermentation.
- Gene editing.
- Metabolic modelling.
- Automated experimentation.
- Field CSTR systems.
- Deployable power and utilities.
- Conventional recovery technologies.
BRAD provides the intelligence connecting these components.
The STRATA Biofoundry and Fermentation CAMPUS prepare the Aerobic Microbial Capability.
Syngas Project supplies the workers, Field CSTRs and slurry tanks.
PowerCan deploys the capability with the power, fuel, laboratory, field facilities and utilities required to operate it.
Conventional engineering systems recover the value or verify completion of the remediation task.
As newer and better-performing microorganisms emerge, BRAD will identify them, specialist originators will develop and validate them, and the CAMPUS Aerobic Capability will continue to improve.
The same field infrastructure can then deploy progressively stronger generations of workers.
This creates the foundation for a multi-billion-euro Worker Slurry industry: a growing portfolio of microbial workforces supported by repeatable Field CSTRs, slurry tanks, PowerCan utilities and field operating systems.
It also creates a global materials-recovery platform.
Syngas Project can maintain prospective sites through observation, due diligence, pilot development, ramp-up and execution, selecting the best intervention window as the microbial industry evolves.
Syngas Project is therefore positioned as platform developer, operator and service provider—managing probable outcomes across the world and converting biological progress into prudent, timed recovery decisions.
We are not attempting to replace the scientists who discover these capabilities.
We are building the engineering system that allows their discoveries to leave the laboratory and perform useful work in the field.
Factory Workers make products. Field Workers perform tasks.
BRAD connects the stakeholder, the evidence, the originator and the application.
BRAD takes the guesswork out of recovery.
Syngas Project supplies the workers, Field CSTRs and slurry tanks.
PowerCan puts them to work in the field.
STRATA sends nature’s workforce back to work.
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