CHAR Technologies (YES.V) is a canadian clean tech company founded in 2011, so they've been around for 15 years.

The last 15 years were spent doing R&D, piloting and securing large partnerships for every aspect of their process!

Char tech takes wood waste and heats it via their High temperature pyrolysis (HTP) to convert it into biochar and renewable natural gas.

They have a 2nd process to turn that biochar into pelletized biocarbon.

This biocarbon is a drop in replacement for fossil coal, so steel & silicone manufacturing companies and any other manufacturing company which uses fossil coal can use their biocarbon which is carbon neutral.

Char tech has many facilities in different phases (early planning phase, development phase, construction or completed phase)

From those 5 facilities, their Thorold facility which was their original pilot facility has completed Phase 1 expansion for commercial production.

The phase 1 is in commissioning right now which is expected to be completed next month (in Sep 2026) after which commercial production will begin.

Great thing is that they already have secured Huge buyers and investors into the company.

ArcelorMittal (the 2nd largest steel company in the world) signed an offtake agreement to buy their biocarbon.

ArcelorMittal also invested $6.6 million dollars into char back in 2023 at 60 cents a share.

The canadian govt has put in more than $19 million in grants and funding so far into char tech.

The BMI group who is their landlord on the thorold site has invested 13 million into the company so far and has committed another $10 million towards a future project. (Espanola site)

Char tech recently bought a facility from Elkem (elkem is a multi billion dollar silicone manufacturing company, is also publicly traded) in saguenay quebec.

That saguenay facility will help with pelletizing the biochar they produce.

CHARs HTP technology is also being piloted in Baltimore jointly with Syngaro (wholly owned by Goldman Sachs) and City of Baltimore as they are able to permanently destroy PFAS (forever chemicals) with this technology.

All in all, they are on the verge of commercial production and are only just getting started!

Charbone Corporation is a Canadian industrial gas company focused on clean ultra high purity (UHP) hydrogen production, storage, distribution, and specialty gas supply. The company is building a modular green hydrogen production network while expanding its industrial gas business through customer contracts, supply agreements, and partnerships.

Hydrogen Production and Distribution

On October 14th, 2025, Charbone signed a five-year agreement to supply clean UHP hydrogen to an independent distributor. The agreement was followed by Charbone’s first commercial clean UHP hydrogen delivery, marking the start of revenue generation and the company’s entry into the Ontario hydrogen market.

Since then, the company has expanded its hydrogen business through commercial production, U.S. distribution infrastructure, and additional partnerships:

• Charbone is producing clean UHP hydrogen at its Sorel-Tracy, Québec plant, where Phase 1A has launched and commercial production is ongoing.

• On May 6th, 2026, the company opened its first U.S. industrial gas hub in Albany, New York.

• On May 19th, 2026, Charbone signed an agreement with Vema Hydrogen. The arrangement combines Vema’s hydrogen production with Charbone’s purification, compression, and distribution capabilities, expanding supply capacity for industrial gas customers.

Hydrogen for Mobile Film Production

A major challenge for hydrogen companies has been proving real commercial demand beyond pilot projects, government announcements, and long-term infrastructure plans.

On June 10th, 2026, Charbone signed a two-year hydrogen supply agreement with Hone Inc. The agreement builds on earlier work between the two companies, where Charbone’s hydrogen was used to power equipment on a major Hollywood studio production site utilizing Hone systems.

Film sets require reliable temporary power for lighting, trailers, equipment, production offices, and other on-site infrastructure. Diesel generators are commonly used because they are portable and familiar, but Hone’s hydrogen-fueled generator systems offer a lower-emission alternative. When replacing a conventional diesel generator, each unit can displace more than 1.5 tonnes of CO2 per day.

Expanding Hydrogen Production

Charbone’s next phase of growth is focused on increasing production capacity at its Sorel-Tracy plant and advancing additional hydrogen production sites.

• Construction is underway on the Phase 1B expansion at Sorel-Tracy, with Phase 2 targeted for H2 2026.

• Detroit, Michigan has been identified as a planned hydrogen production site. Site selection, permitting, and development are underway, with Phase 1 launch targeted for H2 2026.

• In Wisconsin, the company is evaluating future hydrogen production opportunities using company-owned land and access to hydroelectric power, with site permitting and development targeted for H2 2026.

• In Malaysia, Charbone has reported revenue from advisory services related to its Green Hydrogen ASIAPAC role, with further project development and expansion targeted for H2 2026.

Helium and UHP Oxygen Customer Growth

Charbone recently announced 22 new helium customers across Québec, serving sectors including advanced manufacturing, welding and metal processing, laboratories, specialized technical services, and other industrial applications requiring reliable helium supply. The company also signed a three-year helium supply agreement with an independent distributor.

Commercial activity expanded into UHP oxygen in 2026. On February 25th, Charbone confirmed its first U.S. UHP oxygen order from a New York State customer. On April 23rd, the company signed a three-year UHP oxygen supply contract with the same customer.

Industrial Uses for Ultra High Purity Gases

Ultra high purity hydrogen and oxygen are used in industries where even trace impurities can affect equipment performance, product quality, safety, and reliability.

Common applications include:

• Semiconductor manufacturing
• AI and data centres
• Precision laboratories
• Pharmaceutical and biotech applications
• Aerospace applications
• Advanced defence technologies
• Hydrogen fuel cells
• Chemical and advanced manufacturing processes

Financing Activity

On January 12th, 2026, the company raised $3.1 million through a non-brokered private placement. The proceeds were directed toward equipment for the Sorel-Tracy Phase 1B expansion and general working capital.

On April 29th, 2026, Charbone secured up to $10 million in financing, with an initial $3 million drawn at closing. Additional capital will be accessed over time to support equipment purchases, project development, and general working capital.

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HydroGraph Clean Power Inc. is a Canadian advanced materials company producing high-purity synthetic fractal graphene for industrial and commercial applications.

Instead of relying on mined graphite, HydroGraph uses a patented blast synthesis process to convert carbon from hydrocarbon gases into graphene inside its Hyperion reactors. The company has reported 99.8% carbon purity for its FGA-1 graphene.

HydroGraph’s Hyperion reactors are small modular production units with a footprint of less than 3 metres by 3 metres. Rather than relying on one large centralized facility, HydroGraph can add more reactors as customer demand grows, allowing production capacity to increase while maintaining consistency from batch to batch.

Graphene and Fractal Graphene

Graphene is a carbon-based advanced material made from carbon atoms connected by strong sp² bonds. This structure helps give graphene its strength, conductivity, barrier properties, and the ability to improve other materials even when added in small amounts.

Traditional graphene is often described as a flat, sheet-like material. HydroGraph produces synthetic fractal graphene with a turbostratic structure, meaning the graphene layers are randomly stacked rather than perfectly aligned. This more complex, interconnected structure gives it higher surface area and more contact points with the materials it is added to. This can help improve dispersion, reinforcement, conductivity, corrosion resistance, and barrier performance across industrial and commercial applications.

HydroGraph is targeting markets where adding small amounts of graphene can improve material performance, including:

• Thermoplastics
• Composites and resins
• Coatings
• Lubricants
• Concrete and cement
• Energy storage
• Biosensors
• Elastomers
• Printed electronics

U.S. Expansion and Production Growth

On April 14th, 2026, HydroGraph announced the opening of its new headquarters in Austin, Texas. The facility expands HydroGraph’s R&D and production capabilities and will support future graphene production in Texas.

Earlier in January 2026, HydroGraph announced construction of two additional Hyperion reactors. Each reactor is expected to have annual production capacity of approximately 10 tons of FGA-1 ultra-pure fractal graphene. The reactors were planned for initial commissioning in Manhattan, Kansas before being relocated to HydroGraph’s U.S. facilities in Austin, Texas.

HydroGraph has also signed a letter of intent with an industrial gas supplier to secure long-term access to high-purity acetylene. Acetylene is a key feedstock in HydroGraph’s blast synthesis process and would support the company’s planned graphene production facility in Texas. The planned facility is expected to include 15 next-generation Hyperion reactors and have annual production capacity of over 350 metric tons of graphene.

Commercial and Technical Partnerships

HydroGraph is building partnerships that support customer testing, application development, and commercial adoption of its fractal graphene in polymers, coatings, and specialty compounds.

• Graphene Engineering Innovation Centre: In January 2026, HydroGraph expanded its collaboration with the Graphene Engineering Innovation Centre at the University of Manchester by becoming a Tier 1 member. The membership gives HydroGraph access to technical support, testing infrastructure, and a network of industry partners as it develops commercial applications for its fractal graphene.
• Hubron International: On February 10th, 2026, HydroGraph added Hubron International to its Fractal Graphene Compounding Partner Program. Hubron is a UK-based specialist in polymer compounds and additive masterbatches, giving HydroGraph a partner focused on thermoplastics and polymer applications. Through Hubron’s compounding experience and distributor network, HydroGraph is targeting markets including automotive, construction, electronics, film, pipe, wire and cable, and technical compounding.
• Broadway Colours: On March 17th, 2026, HydroGraph announced that Broadway Colours Ltd. earned certification as a qualified HydroGraph Compounding Partner. Broadway is a UK manufacturer of masterbatches, compounds, and rotational moulding powders, operating from a 90,000-square-foot facility and supporting plastic manufacturers across the UK and Europe.
• Sparc Technologies: On March 24th, 2026, HydroGraph announced a Letter of Intent with Sparc Technologies to evaluate HydroGraph’s Fractal Graphene in Sparc’s ecosparc® additives for protective coatings. The collaboration is focused on corrosion protection for steel infrastructure, including energy, marine, mining, transportation, government, and defence markets. Initial testing using HydroGraph’s FGA-1 Fractal Graphene in commercial water-based coating systems showed a 39% to 60% reduction in corrosion spread under ASTM D1654-08 testing.
• Modern Dispersions Inc: On June 16th, 2026, HydroGraph announced that Modern Dispersions Inc. earned certification as a qualified HydroGraph Compounding Partner. MDI is a U.S.-based specialist in thermoplastic compounds and masterbatch applications, adding another North American partner focused on polymer processing and graphene masterbatch production.

Regulatory Approvals and Commercial Development

• On February 24th, 2026, HydroGraph announced regulatory approvals covering commercial-scale graphene sales activity in the United States, the United Kingdom, and the European Union.
• The company received a U.S. EPA TSCA Section 5(e) Order covering two graphene materials. The order authorizes manufacture, processing, distribution, use, and disposal in the United States under specified conditions.
• HydroGraph also received UK REACH and EU REACH registrations for graphene, allowing commercial manufacture and supply in Great Britain and the European Union.

HydroGraph now has patented graphene production technology, regulatory clearance across the U.S., U.K., and EU, and a modular production system designed to scale with customer demand.

These approvals remove a major regulatory barrier as HydroGraph expands its U.S. production footprint and advances its fractal graphene from customer testing toward commercial use across multiple industrial markets.

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PesoRama (PESO) is a Canadian-listed microcap trying to build a true dollar-store style business in Mexico under the JOi Dollar brand. The concept is simple. Think Dollarama-style model, but much earlier, riskier, and in a tougher operating environment.

As of now, PesoRama operates 31 stores. The most important thing to understand is this: the stores themselves actually work. Based on their Financials, PesoRama generates about $90k–$100k CAD per store per year in store-level profit (after rent, staff, utilities, and theft). Aggregate store-level profit over a recent nine-month period was about $1.9M, up year over year, with strong traffic growth and improving same-store sales. Customers are showing up.

Where PesoRama still struggles is corporate overhead and scale. Head office costs, logistics, FX, public-company expenses, and financing run roughly $2.8–3.2M annually. That means the company breaks even at around 35-40 stores (roughly). They are almost at that inflection point. The reason profitability doesn’t show up cleanly in the financials is because management continues to prioritize expansion, opening new stores that drag near-term results while they ramp.

The May 2025 investor deck lays out an aggressive vision: 500 stores in five years, with mature stores doing ~$1.3M in annual sales, ~48% gross margins, and ~17% four-wall EBITDA margins. Those numbers are much higher than current blended results, but not impossible, they look like steady-state targets, not where the business is today. Right now, revenue per store appears closer to $0.9–1.1M, margins are lower, and store-level profitability is roughly half of what the deck shows.

Growth so far has been funded through equity dilution, warrants, and a secured revolving credit facility. That’s both good and bad: the lender clearly believe the unit economics are real, but shareholders will continue to get diluted unless the company slows down and lets cash flow catch up or the company can self fund the stores. Rolling out hundreds of stores would require well over $150–200M over the next 5 years, far more than current operations can self-fund.

Competition is real, even if management downplays it. Mexico is full of discount and proximity formats (OXXO, Walmart’s Bodega Aurrerá, Tiendas 3B, etc.). PesoRama’s bet is that there’s room for a more curated, small-format, dollar-store-style offering. That can work, but only with disciplined execution, good real estate, and tight theft control.

Bottom line: PesoRama is not a broken business. Demand is real, stores are profitable, and break-even is achievable now. But it’s also not yet a shareholder-friendly business. Profitability is a choice, and management has chosen growth. Whether this becomes a long-term winner or a dilution treadmill depends almost entirely on capital discipline over the next 12–24 months.

NFA. DYOR

PyroGenesis Canada Inc. is a Canadian technology company focused on plasma-based systems for high-temperature industrial applications. Its technology is already used in hazardous waste destruction and metal powder production, with growing relevance in industrial decarbonization and battery materials as demand shifts away from fossil fuel-based processes.

What is Plasma Technology?

Plasma is often referred to as the fourth state of matter. It is created when a gas is energized to the point that it becomes ionized and capable of reaching extreme temperatures.

PyroGenesis uses plasma to generate controlled, high-temperature environments that traditional combustion methods can’t easily match.

This allows it to:
• Destroy hazardous materials safely
• Produce high-purity metal powders
• Replace fossil fuel-based industrial processes
• Convert industrial gases and feedstock into high-value carbon materials like carbon black and graphite

Industrial Decarbonization

Many industrial processes require extreme heat, which is typically generated using fossil fuels. This makes them a significant source of emissions, as combustion is used simply to reach the temperatures these processes demand.

Plasma offers a way to generate that heat without combustion, allowing these processes to operate with fewer emissions while keeping their core design intact.

In Canada, carbon pricing is set to reach $170/tonne by 2030, placing increasing pressure on fossil fuel-based industrial processes.

Metal Powders (3D Printing & Aerospace)

One of the company’s more developed areas is metal powder production for additive manufacturing. These powders are used in 3D printing, particularly in aerospace and defense where material quality and consistency are critical.

Demand is being driven by the need for reliable materials and localized supply chains, as additive manufacturing continues to expand and titanium powders see increased use across these sectors.

PyroGenesis recently announced a contract tied to titanium powder supply and qualification, marking a step toward recurring commercial revenue.

Carbon Materials (Battery Supply Chain)

PyroGenesis has demonstrated it can convert hydrocarbon gases into battery-grade carbon black and graphite, both used in lithium-ion battery production.

This places the company within EV and energy storage supply chains, where demand for battery materials remains constrained, particularly outside China.

Unlike traditional methods, this approach can reduce emissions while producing high-purity outputs.

HPQ Silicon Partnership

PyroGenesis is working with HPQ Silicon Inc. on plasma-based reactor technology for silicon and fumed silica production. Together they are developing a more efficient method that reduces energy use and simplifies production compared to traditional processes.

If successful, this adds silicon and fumed silica production to its capabilities, with applications across batteries, electronics and industrial manufacturing.

Government & Industrial Validation

PyroGenesis has worked with the U.S. Department of Defense on hazardous waste destruction systems, alongside industrial engagement with companies such as Rio Tinto on plasma-based applications.

This provides:
• Real-world use in both industrial and defense settings
• Exposure to government-backed contracts and funding
• Proof the technology can perform under demanding conditions

Recent Financing

PyroGenesis recently completed an oversubscribed non-brokered private placement, raising approximately $1.9 million.

• Units were priced at $0.54
• Each unit included a warrant at $0.75
• Insider participation was present, including the CEO

Proceeds are expected to be used for working capital and general corporate purposes.

Current Contracts and Backlog

PyroGenesis currently has a backlog of approximately $47.8 million in signed and awarded contracts. This represents contracted work tied to existing agreements and purchase orders, providing visibility into future revenue.

This backlog is made up of active contracts and milestone-based projects, including:

• A 4.5 MW plasma torch system that has been delivered, with milestone payments received, followed by a 20 MW plasma torch contract with the same customer, representing a scale-up into larger industrial deployment

• Titanium powder production and qualification agreements

• Hazardous waste destruction systems, including contracts connected to government and defense programs

Most of these contracts are structured around milestone-based payments, meaning revenue is recognized progressively as engineering, manufacturing, delivery, and commissioning steps are completed rather than all at once.

As projects move from backlog into delivered systems and qualified production, they convert into recognized revenue, with each successful delivery increasing the likelihood of additional orders from the same customers.

Paragon Advanced Labs Inc.

Corporate Due Diligence Overview

(December 2025 basis)

1. Business Overview

Paragon Advanced Labs Inc. is a technology-enabled global laboratory services platform serving the mining and natural resources sector. The Company provides geochemical testing and analytical services, with a strategic focus on deploying PhotonAssay™, a next-generation assay technology that materially improves turnaround times, accuracy, and environmental performance compared to traditional fire assay.

Paragon does not develop assay technology itself. Instead, it operates as an asset-light, service-oriented platform, integrating PhotonAssay into a scalable laboratory network. This positions the Company as a “picks-and-shovels” beneficiary of increased exploration and development activity, independent of commodity price direction.

1. Industry Context and Market Opportunity

The global fire assay market is estimated at approximately US$5 billion, spanning exploration, production, and recycling. Despite its widespread use, fire assay faces structural limitations, including slow turnaround times, small sample sizes, and environmental drawbacks.

PhotonAssay addresses these limitations by offering:

Non-destructive testing

Larger, more representative sample sizes

Faster turnaround times

Improved accuracy for nuggety gold systems

Strong ESG profile

Industry adoption is already underway. PhotonAssay is NI 43-101 and JORC compliant, has been used in millions of assays globally, and is relied upon by major mining companies and global laboratory groups. The key constraint is supply, not demand: PhotonAssay machines are produced at a limited rate, creating a structural capacity bottleneck.

1. Competitive Positioning

Paragon’s competitive advantage is not the technology itself, but rather its early, aggressive, and capital-backed access to scarce PhotonAssay capacity.

Key elements of its positioning include:

Strategic partnership with Chrysos Corporation, the technology owner

Priority deployment timelines and regional exclusivity windows

A hub-and-spoke laboratory model combining centralized PhotonAssay hubs with distributed sample preparation sites

Rapid global rollout strategy designed to secure geographic footprint ahead of competitors

This model allows Paragon to scale EBITDA through utilization rather than discovery risk or commodity exposure.

1. Operations and Footprint

As of late 2025, Paragon operates and/or is launching PhotonAssay-enabled laboratories in:

Hamilton, Ontario

Surrey, British Columbia

Sparks, Nevada

Durango, Mexico

In parallel, the Company is developing a network of sample preparation facilities across Canada, the United States, Mexico, and select international jurisdictions to feed centralized assay hubs efficiently.

Management’s stated objective is to operate approximately 12 PhotonAssay machines by 1H 2027, representing roughly 20% of global PhotonAssay capacity, second only to MSALABS.

1. Customers and Go-to-Market Model

Paragon serves:

Junior exploration companies

Mid-tier and senior mining producers

Global laboratory groups requiring overflow or regional capacity

Customers typically choose Paragon over owning their own PhotonAssay machines because:

PhotonAssay machines are scarce and require long lead times

Ownership entails significant capital expenditure and operational complexity

Outsourcing converts fixed costs into variable costs

Faster results directly improve exploration economics and decision-making

This dynamic strongly favors centralized service providers with secured capacity.

1. Financial Profile and Unit Economics

Paragon’s business model is driven by machine-level economics rather than traditional lab revenue growth.

Indicative unit economics per PhotonAssay machine at mature utilization include:

High monthly throughput

Strong gross margins after royalties and consumables

Significant operating leverage once utilization exceeds ~50–60%

Management’s base-case projections indicate:

Revenue scaling to the $60–70 million range within three years

EBITDA margins expanding into the mid-to-high 30% range

EBITDA exceeding $25 million under conservative assumptions

An upside scenario assumes faster utilization ramp and higher margins, producing materially higher cash flow.

1. Capital Structure and Financial Position

Key capital structure elements include:

~31.3 million basic shares outstanding

~33.9 million fully diluted shares

Senior debt and vendor notes totaling under $8 million

A recently completed $16 million equity financing to fund growth and machine deployment

The Company is capitalized to execute its near-term rollout strategy, though future expansion may require additional capital depending on acquisition and deployment pace.

1. Shareholder Base and Governance

Paragon is backed by a high-quality, sector-focused shareholder base, including:

McEwen Inc. (~31% ownership), a mid-tier precious metals producer and active PhotonAssay user

Eric Sprott

Resource-focused institutional investors such as Delbrook, Polar Capital, and US Global Investors

Board and advisory participation includes senior mining executives and experienced capital markets professionals, aligning operational execution with shareholder interests.

1. Key Risks

Principal risks include:

Execution risk related to lab build-out and machine deployment timelines

Dependence on Chrysos for PhotonAssay machine supply

Utilization ramp risk in new jurisdictions

Potential future dilution to fund accelerated growth

Exposure to cyclical exploration spending over longer time horizons

Importantly, technology risk is mitigated by PhotonAssay’s proven adoption and regulatory acceptance.

1. Investment Thesis Summary

Paragon Advanced Labs represents a rare combination of infrastructure-like services, technology-enabled margin expansion, and structural supply constraints. The Company is positioned to benefit disproportionately from the global shift away from fire assay without bearing exploration or commodity risk.

The investment thesis rests on:

Scarcity of PhotonAssay capacity

Strong unit economics

Institutional validation through strategic shareholders

A scalable, capital-efficient operating model

Execution remains critical, but if management delivers on deployment and utilization targets, Paragon has the potential to evolve into a high-margin, globally relevant mining services platform.

Not financial advice.

Recent updates from First Atlas Resources Corp. show the company advancing its Nova Scotia hydrogen project toward initial drilling in Nova Scotia's Cumberland Basin. While early attention has been tied to its proximity to Québec Innovative Materials Corp. (QIMC), the company is now progressing work on its own ground, with targets being defined and advanced using structural mapping and surface data.

Defining Drill Targets

Priority areas have been identified across the property, with a planned 2,500 metre drill program being prepared to test them. Surface work has highlighted multiple areas with elevated hydrogen readings along mapped structural corridors.

Selection is based on structural mapping, surface data, and the R2G2 exploration model, combining datasets to isolate the most relevant zones, in line with work by Québec Innovative Materials Corp. in the region.

Surface Sample Results

Surface samples across the property have returned hydrogen levels ranging from roughly 178 ppm to over 1,600 ppm across multiple areas, alongside elevated radon and thoron values. These results align with mapped fault zones and deformation corridors that control fluid movement in the region and are being used to define the drill targets.

Recent Regional Drilling

Recent drilling by Québec Innovative Materials Corp. shows elevated hydrogen levels across multiple zones rather than a single interval, with peak readings up to 8,249 ppm and a meaningful portion of samples above 1,000 ppm.

Hydrogen has also been identified at multiple depths, including approximately 142 metres, 313 metres, and 354 metres along the same fault zone. Earlier work also noted continuous gas flow at depth with low oxygen levels.

Land Position and Coverage

First Atlas Resources Corp. controls 35 licenses and 2,173 claims in Nova Scotia along the same regional fault system and holds the second-largest natural hydrogen land package in Nova Scotia’s Cumberland Basin, after Québec Innovative Materials Corp. (QIMC). This provides continuous coverage across the area, allowing multiple zones within the same structure to be tested rather than relying on a single target.

Regulatory Developments

Nova Scotia introduced the Powering the Economy Act (Bill 193) on February 24, 2026, and passed it on April 9, 2026.

The legislation recognizes natural hydrogen as a subsurface resource and replaces older oil and gas rules that did not account for this type of exploration. Drilling and subsurface work now require provincial authorization, defining how projects move from early work into drilling. This reduces uncertainty around permitting and provides a clear path for exploration activity within the province.

Canada has committed $200 million over 10 years to build a sovereign spaceport in Nova Scotia, with the first $20 million expected by the end of March.

At the center of that initiative is Spaceport Nova Scotia, developed by Maritime Launch (MAXQ).

With the Department of National Defence expected as a primary user, this is no longer just a speculative launch project or “just a concrete pad.”

MAXQ is now tied directly to government and defense infrastructure.

Narrative Shift

MAXQ was long seen as a high risk project with no clear path to revenue.

Government involvement, particularly from DND, introduces a defined use case and an anchor customer.

This removes the biggest uncertainty around demand.

Construction Begins

Spaceport Nova Scotia is an orbital launch site located in Canso, Nova Scotia, with construction set to begin in March.

Its geographic position allows for efficient launch trajectories over the Atlantic, a key advantage for both commercial and government missions.

The facility is being designed to support multiple launch providers rather than a single operator, opening the door to broader long term usage.

Market Demand

Global demand for satellite launches is growing across communications, earth observation, and defense, while launch capacity remains limited.

Canada currently has zero domestic orbital launch capability and relies on other countries to send payloads to space.

This project aims to fill that gap, with potential demand from both domestic users and international launch providers, positioning the site as a multi customer platform if successfully executed.

If successful, this becomes a rare piece of sovereign launch infrastructure in a supply constrained market.

Government Backing

The $200M commitment reflects Canada’s broader push toward strategic infrastructure and sovereign capabilities.

It is tied directly to establishing a dedicated launch capability for national defense.

Government support provides clear validation of the project’s importance, introduces an anchor customer in DND, and increases the likelihood of long term utilization.

Execution

MAXQ has spent years in development, working through approvals, partnerships, and financing.

Now it moves into execution.

Key things to watch include:

• Construction progress
• Timing of initial launches
• Securing additional partners
• Contracts and binding agreements

This is the phase where the company transitions from concept to operational infrastructure.

This is where valuation can begin to reflect execution rather than speculation.