Bright Sand Group · Bright Sand Canada Inc.
The scientific engine of Bright Sand Group. We develop the technologies, formulations, and system intelligence that convert waste into value — from biochar and wood vinegar to carbon nanotubes and AI-optimised plasma reactors.
Our Mission
Bright Sand Canada exists at the intersection of applied environmental science and engineering. We develop the technologies that make the Group's waste-to-value mission real — laboratory-validated, field-proven, and commercially deployable.
All formulations are developed under controlled laboratory conditions, validated in field trials, and refined before commercial deployment. Every EcoFresh™ product began here.
Products derived exclusively from renewable Canadian softwood mill waste — 100% biobased, biodegradable, and designed to work with ecosystems rather than against them. Zero petroleum inputs across all product lines.
Leading the reactor science, process control architecture, and AI-driven optimization for MWCNT and SWCNT production via the hybrid plasma platform — bridging R&D to commercial deployment by BSI.
Multi-college R&D hub planned at Ticonderoga, NY, alongside independent testing programmes for EcoFresh™ products.
Research Areas
From wood vinegar chemistry to oil sands remediation, each stream moves through the same rigorous pathway — laboratory formulation, controlled trials, field validation, and commercial readiness.
Development and optimisation of aqueous wood vinegar formulations from Canadian softwood and hardwood pyrolysis — including birch, maple, and mixed hardwood species alongside softwood mill residuals. Research focuses on concentration parameters, stability profiles, and application protocols for each product sector — industrial, forestry, agricultural, marine, and public health. The platform underpins all seven EcoFresh™ products.
AgriMend™ engineered biochar research targets 600–800 m²/g surface area, 90%+ toxin adsorption, 1.8–2.6 tCO₂e/tonne carbon sequestration, and 5–10 regeneration cycles.
Applied research on using engineered biochar and EnviroGuard™ wood vinegar slurry to dewater, detoxify, and biologically restore oil sands tailings ponds. Research targets 95%+ water recovery and 40% native boreal vegetation return within 3 years.
Research into USDA BioPreferred certified soil amendments — optimising carbon sequestration rates, toxin adsorption kinetics, and soil water retention improvements (20–45%). Current validation focus: converting Ticonderoga paper mill waste stream (sludge, ash, rejects) into certified soil boosters at commercial scale.
Carbon credit monetisation pathway: AgriMend™ biochar qualifies for Verra and Gold Standard carbon offset protocols, creating an additional revenue layer from existing remediation operations.
Testing protocols and sites are being evaluated across Canada, US, South Pacific, and Alberta. The following results were achieved in prior field programmes:
TropiMist™ — 90%+ larval reduction in Caribbean island spray tests · ArborCare™ — canker arrest and callus formation in 6 weeks, validated by 3 independent forestry trials · AquaGuard™ — cyanobacteria suppression and sargassum odour elimination within 24 hours · OdorGuard™ — 100% H₂S removal and 60% methane reduction in landfill gas trials · EnviroGuard™ — tailings pond settling accelerated from weeks to hours in initial tests.
Patent Allowed · Developed in Windsor, Ontario
The USPTO allowed our Continuous Feed Processor application (US 2025/0075131 A1) on September 23, 2026. Bright Sand Canada designs, tests and refines the processor in Windsor: a sealed, continuously fed system that converts municipal solid waste, tires, plastics and biomass into syngas, engineered carbon and feedstock for high-value products — and gets better with every run.
A ram, rotary screw or conveyor feeds the line; built-in blades cut bales open. Sealed doors keep the hot zone isolated from loading.
Heat is applied to the outside of a rotating drum. Internal fins mix the material and carry it forward.
Processing continues. Anything that cannot be converted drops to a sealed chute and is quenched.
Hydrocracking, nanoparticle deposition or catalyst-based gas conversion — matched to each waste stream and target product.
Syngas for power and heat, engineered carbon, and carbon feedstock for our nanotube platform.
A processor is only as good as the decisions running it. Our control architecture links PLC/SCADA control, live sensor data, a physics-based digital twin and a reinforcement-learning agent to tune temperature, residence time and module selection run by run. Spectral grades the carbon coming off the line, and those results feed back into the next run’s setpoints.
Allowed by the U.S. Patent and Trademark Office on September 23, 2026; the patent issues once the issue fee is paid. Published as US 2025/0075131 A1 (Appl. No. 18/820,172). Invented by Earl R. Decker and developed in Windsor, Ontario by Bright Sand Canada Inc. A demonstration unit is in development. Process descriptions summarise the published application and our development programme; figures are design ranges, not guaranteed performance.
Advanced Materials · CNT Development
Bright Sand Canada leads the applied research and system intelligence layer for MWCNT and SWCNT production — developing the reactor science, process control architecture, and AI-driven optimisation that makes the hybrid plasma production platform commercially viable for the BSI Advanced Materials Division. In parallel, BSC is developing the feedstock protocols and reactor integration for LNG flare gas conversion — routing methane from LNG operations directly into the hybrid plasma reactor to produce high-value MWCNT and SWCNT at the wellhead. Not carbon capture: carbon transformation.
Proprietary hybrid plasma reactor technology enables precise CNT nucleation without bulk heating — achieving controlled diameter and chirality tuning between MWCNT and SWCNT output. Detailed process architecture is protected corporate IP.
Nickel-iron catalyst nanoparticles deposited on mesh anodes. Catalyst composition, particle size, and support geometry are optimised per CNT type. MWCNT and SWCNT require distinct catalyst configurations and growth conditions.
Electrostatic precipitation and membrane filtration for MWCNT/SWCNT capture. Acid washing removes residual catalyst. Final product undergoes Raman spectroscopy and TEM imaging for quality grading and specification.
PLC architecture manages plasma pulse sequencing, gas valve actuation, kiln feed rate, and thermal zone control. SCADA provides real-time process visualisation, alarm management, and historian data logging across all reactor subsystems.
100+ sensor points. Distributed edge nodes fuse optical emission spectroscopy (OES), mass flow, temperature, and pressure signals into a unified process state vector — closed-loop plasma control at <10ms latency.
Physics-based digital twin continuously updated from live sensor data. Generative surrogate models predict commercial-scale (1–5 t/day) process behaviour from lab data — with uncertainty quantification to guide physical validation priorities.
RL agent continuously explocontinuously optimises process parameters to maximise CNT yield and purity for a given feedstock. Specific parameter architecture is protected corporate IP. Learns from every synthesis run, improving setpoint recommendations across thousands of cycles.
Time-series anomaly detection across all rotating and plasma components. Flags failures 48–72 hours in advance — enabling scheduled intervention rather than emergency shutdown, critical for continuous commercial operations.
NIR spectroscopy + ML classifier identifies plastic/tire feedstock composition at intake. Automatically adjusts pyrolysis temperature profiles and plasma parameters to maintain consistent CNT output despite variable waste input chemistry.
EMI shielding composites · Structural reinforcement · Battery & supercapacitor electrodes · Industrial polymer additives
High-performance composites · Drone & UAV airframes · Battery electrodes · Advanced electronics · Semiconductor transistors
Integrated System Data Flow
↺ continuous feedback loop — parameter adjustment every synthesis cycle
Development Roadmap
All AI and control system IP generated by Bright Sand Canada R&D is owned and retained by Bright Sand Canada Inc. System hardware design and deployment is managed by BSI Advanced Materials Division.
Spectral · Live, Auditable Raman Analysis
Spectral is Bright Sand Canada’s live, auditable analysis of carbon product — recovered carbon black (rCB), graphene and carbon nanotubes, across third-party processes and our own. Before it grades a production lot, it has to read a known material correctly. An independent third-party laboratory measured one commercial raw HiPCO single-wall carbon nanotube powder at three excitation wavelengths — 532, 561 and 785 nm — and supplied the raw spectra. We ran them through Spectral with its detection gates frozen.
Full spectrum · normalised to G band
Radial breathing modes · tube diameter
Raw spectra from an independent third-party laboratory, baseline-offset and normalised by Bright Sand Canada for display. Shaded band marks the (6,5) chirality window (295–335 cm⁻¹); dotted line is the reference (6,5) position at 308 cm⁻¹. Reference material only — not Bright Sand product.
| Excitation | ID/IG | Defect grade | G⁻/G⁺ | Tubes in resonance | Dominant RBM |
|---|---|---|---|---|---|
| 532 nm | 0.14 | Good | 0.50 | Metallic | 268 cm⁻¹ · ~0.9 nm |
| 561 nm | 0.11 | Good | 0.42 | Near (6,5) resonance | 236 cm⁻¹ · ~1.0 nm |
| 785 nm | 0.04 | Good | 0.26 | Semiconducting | 228 cm⁻¹ · ~1.0 nm |
D-to-G band ratio stayed well inside the “good” threshold (≤ 0.35) at every wavelength — a consistent quality call on one powder across three lasers.
The broad G⁻ shoulder halves from 532 to 785 nm. Spectral flagged metallic character at 532 nm and semiconducting at 785 nm — the resonance switch the physics predicts.
Only at 561 nm, near the (6,5) resonance, does a real (6,5)-assignable peak appear — at about 8% of the dominant ~1.0 nm tube. Unsorted HiPCO is not (6,5)-rich, and Spectral says so.
Spectral’s resonance validator was held to a frozen 256-spectrum set of minerals, pharmaceuticals and ordinary carbons. One false flag in 256. The gate was not loosened to fit the result.
D/G defect ratio, 2D/G and G-band shape, scored against thresholds you set for what a good lot means.
Nanotube, graphene, graphitic and fullerene signatures are read separately, so a batch is identified before it is graded.
Metallic vs semiconducting character, tube diameter from radial breathing modes, and chirality, but only when the laser can support the claim.
A spec sheet or certificate says (6,5)-enriched? Spectral checks whether the laser used can support that claim, and whether (6,5) is a real peak or only a shoulder.
It returns “unknown” when a spectrum doesn't cover the bands it needs, and it rejects mineral and pharmaceutical lookalikes. False-positive rate is 0.4% on a frozen negative set.
Each reading is a record: the file, the laser, the grade and the claim that laser is allowed to make. Run the same file again and the record matches.
Runs on spectra from your Raman, a third-party lab or open reference libraries, at 532, 561 or 785 nm.
Read the carbon while it is forming, and adjust heat, pulse timing or catalyst before the lot is finished.
A 532 nm scan can grade quality.
It cannot sign a chirality claim.
For CNT development, that is the release rule Spectral enforces: quality on 532 or 785 nm, a chirality statement only on a resonant line. A good grade at 532 nm means low-defect carbon with a metallic G band. It does not mean the lot is (6,5).
Spectral · Developed at Bright Sand Canada · U.S. patent pending
Take control of your carbon output. Spectral reads a Raman file and keeps the laser wavelength on every number. It returns a defect grade, whether the G band looks metallic or semiconducting, a tube diameter from the radial breathing modes, and how much of the signal sits in the (6,5) window, and it only lets each laser make the claim that laser can support.
One reader. The laser stays on the number.
What it means for your product
The release rule: quality on 532 or 785 nm, a chirality statement only on a resonant line. A good 532 nm grade is not a (6,5) lot.
D, G and 2D are the quality language, and they move when the laser changes. Two sheets measured at two wavelengths are not one comparison.
The same reader is a structure check: defects and order, not a guess based on how the powder looks.
From reading to control
The file, the laser, the grade and the claim that laser is allowed to make stay in one place. Run the same file again and the record matches, so a buyer, a partner or a later shift can check the number.
The same audited reading, taken during production instead of after it.
Change heat, pulse timing or catalyst while there is still time to change the result.
The software recommends. A person accepts the change.
Take control of your carbon output →Spectral · Traceability
Every graded lot gets a record that keeps the evidence behind the result, not just a pass or fail, and shows if anything was changed later. Buyers can check it against the specification they agreed to.
Example lot certificate · illustrative data
sha256: 3f1a…example…9c20Example only. Values, lot and specification are made up to show the format. Each record is shared as a readable PDF for incoming-inspection files and as a machine-readable file customers can load into their own quality systems.
Where lot-by-lot proof matters
Incoming material checks and documented lot history for carbon-enhanced components.
Consistent feedstock for composite airframes, rotor blades and conductive skins.
Low-volume, high-value parts where each lot’s properties matter.
Quick, quantitative checks on carbon-enhanced prepregs and panels.
EMI shielding, lightning-strike protection, thermal management and radiation shielding depend on the carbon going in.
Spectra supplied by an independent third-party laboratory on a commercial HiPCO SWCNT reference powder. Results describe that reference material and Spectral’s analysis of it; they are not a specification of Bright Sand product. Diameters estimated from radial breathing mode positions using a standard empirical relation.
EcoFresh™ Products
100% biobased liquid biostimulant derived from Canadian softwood wood vinegar. Promotes root development, plant health, and vigour across agricultural and forestry applications.
All EcoFresh™ formulations were developed by Bright Sand Canada's R&D team. The granted wood vinegar platform patent behind them is held by Bright Sand Inc. Products are commercialised by Bright Sand Industries Inc. through the EcoFresh Plant (in design) and national retail channels. BSC also develops the biomass pyrolysis parameters for ArborForce™ BSI-EHC — battery-grade engineered hard carbon for sodium-ion batteries.
Odor modulation and surface methane management for landfills, tailings, and compost. Reduces odours 80–90% within hours. Cuts methane emissions by up to 70%.
100% H₂S removal in landfill gas. 60% methane reduction. Federal GSA Procurement eligible. Petroleum-free and fully biodegradable.
Targeted lesion injection for Butternut and Beech canker. Field-validated: arrest of canker progression and callus formation within 6 weeks across 3 independent forestry trials.
Biobased mosquito breeding habitat management. Over 90% larval reduction in Caribbean field tests. Non-toxic to wildlife, fully biodegradable, petroleum-free.
Suppresses cyanobacteria and algae blooms. Eliminates sargassum odour within 24 hours. Florida lake programs and Caribbean coastal management.
AgriGuard controls fungal pathogens and enhances germination. AgriMend™ engineered biochar: 600–800 m²/g, 90%+ toxin adsorption, 1.8–2.6 tCO₂e/tonne sequestration, 5–10 cycle regeneration.
Certifications & IP
The USDA BioPreferred® certification and the Group's granted patents are held by Bright Sand Inc. Bright Sand Canada owns the IP from its own research and development — including the Continuous Feed Processor, the nano patent family and the 2026 provisionals, among them the spectral quality-control provisional behind Spectral. All product formulations developed by Bright Sand Canada. All patent numbers reference U.S. registrations unless otherwise noted.
Partnerships & Collaborations
Bright Sand Canada pursues partnerships that combine applied science with institutional rigour — university testing programmes, multi-college R&D labs, and commercial research alliances.
A proposed $5M joint research facility in partnership with NCCC, SUNY Adirondack, Paul Smith's College, and SUNY ESF at the Ticonderoga sustainability hub. The lab will provide classrooms, research capacity, and applied science programming for 200+ students annually — focused on EcoFresh™ soil amendments and thermochemical waste conversion.
Three independent forestry research bodies have validated Dr. Judi's ArborCare™ performance — confirming canker arrest and callus formation within 6 weeks of targeted injection on Butternut and Beech specimens. Field trial network continues to expand across Ontario, Quebec, and the US Northeast.
Letter of Intent signed with Sylvamo for Bright Sand Canada to develop the biochar soil amendment formulation and production process for Sylvamo paper mill waste streams. The Ticonderoga facility will process 109,500+ tonnes per year of mill residuals into USDA BioPreferred certified soil boosters, with Bright Sand Canada providing ongoing process optimisation and product validation.
PES, based in Nuku‘alofa, Tonga, holds exclusive South Pacific rights to Bright Sand technology and works with the governments of Tonga, Solomon Islands, Samoa, Kiribati, Nauru and Tuvalu on circular waste and energy systems built for each community. Bright Sand Canada is PES’s technology partner; together we prepared the Nauru 2050 master plan.
The Bright Sand Group
Bright Sand Canada is the R&D entity and owns the IP it develops, now and in the future. Bright Sand Inc. holds the Group's granted patents. Systems are deployed by Bright Sand Industries Inc. Each entity plays a distinct role in converting research into commercial reality.
Designs and supplies system components to every project location. Holds majority ownership in each SPV — Ticonderoga, the EcoFresh Plant in Design, and the BSI Advanced Materials Division in Detroit.
Visit Company Page →Holds the Group's granted patents and the USDA BioPreferred® certification (ID 14707), and licenses those rights to the operating entities. New IP from Bright Sand Canada's research and development, including the Continuous Feed Processor, the nano patent family and the 2026 provisionals, stays with Bright Sand Canada.
Visit Company Page →Contact
For R&D partnerships, product testing collaborations, distribution enquiries, or investment discussions related to Bright Sand Canada's technology programmes.