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Hut 8 Corp. (HUT) Business

Verbatim Item 1 Business section from Hut 8 Corp.'s latest 10-K. Filing date: 2026-02-25. Accession: 0001104659-26-019392.

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Item 1. Business

Hut 8: Where Power Unlocks Potential

Hut 8 is an energy infrastructure platform that integrates power, digital infrastructure, and compute at scale to fuel next-generation, energy-intensive use cases. We take a power-first, innovation-driven approach to developing, commercializing, and operating the critical infrastructure that underpins the breakthrough technologies of today and tomorrow.

Our Platform

Our platform consists of three layers: Power, Digital Infrastructure, and Compute. Together, these layers form a vertically integrated foundation for next-generation, energy-intensive technology applications. This structure enables us to participate selectively across the infrastructure value chain, including securing power and interconnections, developing and operating digital infrastructure assets that leverage that power, and deploying compute capacity on or alongside that infrastructure. Today, our core focus is on commercializing this platform primarily through the development and operation of data centers at scale, supporting AI, high-performance computing (“HPC”), ASIC compute, and other energy-intensive technology applications.

Power. We acquire, develop, and manage critical energy assets such as powered land, interconnects, substations, switchyards, and related electrical systems designed to address the load demands of next-generation, energy-intensive technology applications. As of December 31, 2025, our Power layer comprised 1,020 megawatts (“MW”) of energy capacity under management across 15 sites in the United States and Canada, spanning energy assets we own, lease, or operate on behalf of third parties. Of this capacity, approximately 310 MW is associated with the four power generation assets we divested in Q1 2026.

Digital Infrastructure. We design, build, commercialize, and operate purpose-built data center facilities for next-generation, energy-intensive technology applications with the aim of maximizing long-term returns from our Power layer. As of December 31, 2025, our Digital Infrastructure layer comprised five ASIC compute data centers, five traditional cloud and colocation data centers, and one non-operational ASIC compute site.

In addition to these sites, we are actively advancing a scaled AI infrastructure development program. We are currently developing an AI data center at our River Bend campus in Louisiana. The project will commercialize 330 MW of utility capacity and is targeted for initial delivery and commissioning in Q2 2027.  In addition, we continue to advance the commercialization of 1,230 MW of utility capacity under development across multiple sites in our development pipeline.

Compute. We own, operate, and scale purpose-built businesses that acquire, deploy, and monetize specialized hardware for next-generation, energy-intensive technologies like AI, HPC, and ASIC compute. Each business is typically launched and capitalized under a distinct brand tailored to a specific end market and structured to align with its strategic role within our broader platform. Through this structure, we provide direct exposure to the markets created by transformative technologies such as AI. As of December 31, 2025, our Compute layer primarily comprised three brands:

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1.American Bitcoin. Launched in 2025, American Bitcoin, a majority-owned subsidiary of Hut 8, is a publicly listed Bitcoin accumulation platform focused on industrial-scale ASIC compute and the development of a strategic Bitcoin reserve. The principal objective of American Bitcoin is to deliver increasing Bitcoin exposure to its shareholders, as measured by Bitcoin per Share. American Bitcoin’s Class A common stock is listed on Nasdaq under the symbol “ABTC.”

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2.Hut 8 Canada. Hut 8 Canada, formerly known as Hut 8 High Performance Computing, provides data center and cloud infrastructure services, including public and private cloud deployments, managed backup, business continuity and disaster recovery services, and high-capacity storage solutions. Hut 8 Canada operates though a wholly owned subsidiary of Hut 8 across five data centers in Canada, serving more than 200 customers.

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3.Highrise AI. Highrise AI is an AI Cloud business wholly owned by Hut 8, offering a cloud infrastructure platform purpose-built for AI. Designed for developers and enterprises operating in performance-critical and security-sensitive domains, Highrise AI delivers bare-metal performance with full-stack orchestration to support the training and deployment of production-scale AI models. As of December 31, 2025, Highrise AI operated 1,000 NVIDIA H100 GPUs and 96 NVIDIA H200 GPUs.

Exhibit 1. Power and Digital Infrastructure assets under management as of December 31, 2025

AssetHut 8 Ownership(1)LocationPower SourceApplicationTotal Capacity
Vega100%Texas PanhandleWind + ERCOT(2) gridASIC compute205 MW
Medicine Hat100%Medicine Hat, ABCCGT(3) + AESO(4) gridASIC compute67 MW
Salt Creek100%Orla, TXERCOT(2) gridASIC compute63 MW
Alpha100%Niagara Falls, NYNYISO(5) gridASIC compute50 MW
Drumheller100%Drumheller, ABAESO(4) gridNon-operational42 MW
Kelowna100%Kelowna, BCGrid (utility tariff)Cloud and colocation1.1 MW
Mississauga100%Toronto, ONGrid (utility tariff)Cloud and colocation0.9 MW
Vaughan100%Toronto, ONGrid (utility tariff)Cloud and colocation0.6 MW
Vancouver II100%Vancouver, BCGrid (utility tariff)Cloud and colocation0.5 MW
Vancouver I100%Vancouver, BCGrid (utility tariff)Cloud and colocation0.3 MW
King Mountain50.0%McCamey, TXWind + ERCOT(2) gridASIC compute280 MW
Iroquois Falls(6)80.1%Iroquois Falls, ONCCGT(3) power plantPower generation120 MW
Kingston(6)80.1%Kingston, ONCCGT(3) power plantPower generation120 MW
North Bay(6)80.1%North Bay, ONCCGT(3) power plantPower generation35 MW
Kapuskasing(6)80.1%Kapuskasing, ONCCGT(3) power plantPower generation35 MW
Energy Capacity Under Management1,020 MW
Column 1Column 2
(1)Generally, percentage owned denotes our ownership of power infrastructure at owned or leased sites, whereas for cloud and colocation sites, percentage owned denotes our ownership of mechanical and electrical infrastructure at leased data center locations.
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(2)Electric Reliability Council of Texas (“ERCOT”)
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(3)Combined cycle gas turbine (“CCGT”)
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(4)Alberta Electric System Operator (“AESO”)
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(5)New York Independent System Operator (“NYISO”)
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(6)One of four sites comprising the 310 MW portfolio of power generation assets Hut 8 divested in Q1 2026

Exhibit 2. Power and digital infrastructure assets under development and construction as of December 31, 2025

AssetLocationApplicationStageTotal Utility Capacity
River BendLouisianaAI infrastructureConstruction330 MW
Site 02TexasTBDDevelopment1,000 MW
Site 03TexasTBDDevelopment180 MW
Site 04IllinoisTBDDevelopment50 MW
Energy Capacity Under Development and Construction1,560 MW

Our Operating Segments

We report across three core operating segments: Power, Digital Infrastructure, and Compute. Each segment corresponds directly to a layer of our platform. A fourth segment, Other, captures revenue from activities that are not core to our platform or do not meet the criteria for segment-level reporting.

Power. Our Power segment comprises the origination, development, and management of powered land and energy infrastructure that enables large-scale, energy-intensive infrastructure deployment. This includes interconnects, substations, switchyards, generation assets, and related electrical systems. While our Power segment is designed primarily to support the scaling of our downstream Digital Infrastructure layer, we have also historically monetized our power capabilities through managed services arrangements and the operation of power generation assets. In the future, we may generate revenue in our Power layer through other commercial structures.

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Digital Infrastructure. Our Digital Infrastructure segment comprises the development, ownership, and operation of facilities designed to support next-generation, energy-intensive technology applications. This segment represents a downstream pathway through which certain Power assets within our platform are commercialized by developing and leasing data centers. We seek to monetize our Digital Infrastructure assets through a range of commercial structures, including long-term hosting, leasing, or colocation agreements. Our goal is to generate predictable, contracted cash flows supported by strong credit profiles, medium-to-long-term duration, and economic terms designed to deliver attractive returns on and of invested capital.

For example, we build and operate facilities optimized for various chip architectures. For ASIC-based Bitcoin mining, we provide hosting services to third-party customers through fixed-fee or profit-sharing arrangements, often with reimbursement for pass-through costs such as electricity. Through our Hut 8 Canada business, we operate five data centers serving more than 200 customers and deliver services such as colocation, compute, storage, and networking. We are expanding into purpose-built infrastructure to support AI and high-performance computing (e.g., GPUs and TPUs), beginning with our River Bend campus in Louisiana.

Compute. Our Compute segment comprises operating businesses that deploy and monetize compute assets across next-generation energy-intensive technology end markets. We generate revenue through the operation of owned compute infrastructure and the provision of compute-based services, with economics driven by hardware utilization, operating efficiency, and market demand.

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1.ASIC Compute. This segment reflects revenue generated primarily by American Bitcoin. Revenue is derived from Bitcoin mining rewards earned based on the computing power contributed to mining pools through the operation of owned mining infrastructure.

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2.Traditional Cloud. This segment reflects revenue generated by Hut 8 Canada. Revenue is generated through consumption-based arrangements under which customers commit to baseline levels of compute, storage, network, or power usage, with additional usage billed based on actual consumption.

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3.AI Cloud. This segment reflects revenue generated by Highrise AI. Revenue is generated through contracted infrastructure and service fees.

Other. Our Other reporting segment includes activities that fall outside the scope of our Power, Digital Infrastructure, and Compute layers. We continuously evaluate opportunities to leverage our expertise in power, digital infrastructure, and compute to enhance our risk-adjusted returns. While our primary focus remains on the three core layers of our platform, we have previously, and may in the future, expand into complementary business lines we believe align with our strategic capabilities. Revenue from this segment is currently generated through Equipment Sales and Repairs.

Our Strategy and Operating Model

We believe the value of power will continue to rise as next-generation, energy-intensive technologies drive growing demand within a constrained electrical grid. In this increasingly supply-constrained energy environment, access to power has become a key gating factor for digital infrastructure development, often determining where, how, and what infrastructure can be built. Power availability, cost, scale, and timing directly shape the feasibility and economics of large-scale infrastructure projects.

Consistent with this view, we treat power as the first variable in platform development. Rather than serving as a downstream input following real estate acquisition, power informs our site selection, infrastructure design, capital allocation, and commercialization decisions. We believe this power-first approach differentiates us from traditional data center operators, which have historically prioritized real estate availability and addressed power procurement reactively.

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Because power attributes vary materially across site-specific fundamentals, including cost structure, scale, timing, provision (front-of-the-meter vs. behind-the-meter), and generation technology, we apply a targeted, asset-by-asset monetization strategy designed to optimize project-level returns while managing exposure to secular market risk. Each asset is initially developed and commercialized for a specific use case determined at the time of investment through project-level underwriting and return analysis.

As we look to develop and commercialize assets for a defined use case through project-level underwriting, we intend to design infrastructure, where appropriate, that preserves optionality. We believe this approach allows for the flexibility to adapt assets in response to changes in technology, market conditions, and customer demand, supporting long-term asset viability and value across the asset lifecycle. The ability to reposition assets across multiple potential use cases provides us with additional flexibility in asset selection.

We execute our strategy through a development flywheel that governs how we originate, invest in, monetize, and optimize power assets (see Exhibit 2). We believe this flywheel provides a structured, scalable, and repeatable framework for disciplined capital deployment. Our objective is to build an investment-grade energy and digital infrastructure platform characterized by durable assets, contracted recurring revenue, and disciplined capital allocation.

We believe this operating model differentiates us from traditional data center colocation providers, which are often constrained by legacy real estate footprints and incremental power procurement processes. It also distinguishes us from developers seeking to adapt existing facilities for emerging workloads with less integrated or fully outsourced power origination and greenfield development capabilities.

Exhibit 3. Our development flywheel

StageDescription
OriginationGuided by rigorous due diligence, we identify high-potential assets that can support next-generation, energy-intensive technologies such as AI and HPC, as well as sites where ASIC compute can serve as a transitional load to enable more rapid, cost-effective monetization. This approach expands the universe of assets we can pursue, including stranded or underutilized power.
InvestmentWe integrate select assets from our development pipeline into our platform through targeted underwriting and disciplined capital deployment. In evaluating investments, we assess how interim or transitional use cases, such as ASIC compute, can support acquisition underwriting, accelerate time to cash flow, and mitigate development and enterprise risk.
CommercializationWe commercialize each power asset in our platform with the use case we believe will deliver the highest risk-adjusted returns based on prevailing market conditions, asset characteristics, and customer demand.
OptimizationWe take an active approach to portfolio management, driving innovations in infrastructure design, development, and operations to enhance asset performance, expand optionality, and unlock return potential. Over time, we aim to maximize platform yield, including by transitioning suitable power assets to higher-return use cases where possible, while continuously examining how to lower our cost structure.

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Case study: Power-first digital infrastructure development at the River Bend campus

Our River Bend campus in Louisiana exemplifies the execution of our power-first development model. The campus was initially commercialized in December 2025 through a 15-year triple-net lease supporting 245 MW of IT capacity. From inception, the project was structured around disciplined, power-first site origination and development, with power availability and scalability serving as key underwriting criteria. ​We applied a systematic, data-driven approach to identify the potential of the Louisiana market and secured a prime site through deep grid, generation and land analysis. Through early engagement with Entergy Louisiana, we assumed key interconnection and development functions typically managed by the utility, such as the development of transmission and distribution infrastructure, materially accelerating originally quoted power delivery timelines. ​In parallel, we pursued proactive and coordinated stakeholder engagement, working closely with the Governor’s office, Louisiana Economic Development (LED), and West Feliciana Parish to align incentives and advance community and economic impact. We continued to deepen our partnership with Entergy Louisiana to secure scalable, long-term capacity for the campus, demonstrating our ability to operate at a utility level. ​Commercialization was approached with discipline and patience, with a focus on transaction structure and counterparty selection to optimize long-term economics and shareholder value creation. The outcome validates our ability to originate, execute, and monetize digital infrastructure assets at scale while maintaining control over critical inputs.

ASIC compute data center development is one of our primary tools for commercializing power assets under our power-first strategy. In scenarios where AI or other HPC workloads may not be immediately viable due to commercialization timelines, land constraints, load dynamics, limited fiber access, or other factors, ASIC compute can serve as an initial load that enables near-term monetization while often preserving the ability to transition sites to higher-value use cases over time. This capability strengthens our power origination and acquisition underwriting capabilities by expanding the set of assets we can pursue and accelerating time to cash flow once secured.

American Bitcoin anchors this approach under long-term commercial agreements pursuant to which we are its exclusive infrastructure development and operating partner. These arrangements provide a flexible source of offtake that can increase certainty at the earliest stages of commercialization and can reduce execution risk as assets move from origination into development.

Case study: How ASIC compute enables rapid, cost-efficient power acquisition

In early 2024, we began diligence on our Vega site in Texas, a large-scale, behind-the-meter asset with an existing substation and immediate access to some of the lowest locational wholesale power prices in North America. While the site was potentially attractive for an AI or HPC data center, a contractual requirement to begin consuming power by Q2 2025 would have created an unrealistic timeline for an AI or HPC data center project. To meet this deadline, we underwrote Vega as a data center for ASIC compute, enabling us to secure the site and rapidly begin development. We completed the initial energization of the site in Q2 2025, less than a year after acquiring it, for an all-in development cost of approximately $455,000 per megawatt. Today, the site hosts approximately 15 exahash-per-second (EH/s) of installed hashrate across 17,280 ASIC servers under an ASIC Colocation agreement with American Bitcoin. Importantly, we retain the flexibility to repurpose the site for other applications to optimize long-term value.

As technology and customer demand evolve, the workloads that support the strongest risk-adjusted returns on a given site may change over time. We aim to address this by securing power positions, including powered land and interconnection pathways, with a long-term view, and by commercializing those positions through the structure we believe is best suited to the asset and market at the time, including managed services arrangements, development and infrastructure management activities, and, where appropriate, the development and operation of data centers through our Digital Infrastructure layer. This approach allows us to preserve flexibility at the asset level, reduce reliance on any single demand driver, and support durable growth through market cycles.

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Execution of our power-first strategy is supported by a power-native organization with deep experience across the development and commercialization lifecycle of energy infrastructure. Our personnel have deep experience navigating regulatory frameworks, interconnection processes, and regional power markets, enabling disciplined execution across a range of geographies and load profiles. Across our organization and Board of Directors, this experience spans power origination, infrastructure development, commercialization, and capital markets execution, drawing on backgrounds at leading companies including NextEra Energy, Constellation Energy, Exelon Corporation, Clearway Energy, Invenergy, Duke Energy, Holtec International, Oriden Power, Pine Gate Renewables, Acciona Energy, J.P. Morgan, Citigroup, NV Energy, Ormat and GE Capital.

Our Development Pipeline

We execute our power-first strategy by building and advancing a scaled development pipeline. Capacity within this pipeline is converted to energy capacity under management upon commercialization. As of December 31, 2025, our development pipeline comprised approximately 8,500 MW of capacity (see Exhibit 4).

Exhibit 4. Our development pipeline

As of the end of
StageDescriptionQ1 2025Q2 2025Q3 2025Q4 2025
Energy Capacity Under DiligenceSites identified for large-load use cases such as AI, HPC, ASIC compute, industrial applications such as next generation manufacturing, and other energy-intensive technologies. At this stage, we assess site potential by engaging with utilities, landowners, and other stakeholders to evaluate critical factors, including power availability, infrastructure readiness, fiber connectivity, and overall commercial viability.8,190 MW7,650 MW5,865 MW5,185 MW
Energy Capacity Under ExclusivitySites where we have secured a clear path to ownership through either: (i) an exclusivity agreement that prevents the sale of designated land and power capacity to another party or (ii) a tendered interconnection agreement, confirming a viable path to securing power and infrastructure for deployment.2,613 MW3,113 MW1,255 MW1,755 MW
Energy Capacity Under DevelopmentSites where we are actively investing in development and commercialization by executing definitive land and/or power agreements, advancing site design and infrastructure buildout, and engaging with prospective customers.1,530 MW1,230 MW
Energy Capacity Under ConstructionSites where we have executed a definitive offtake agreement and commenced construction activities.205 MW330 MW
TotalAll sites under diligence, exclusivity, development, and construction11,008 MW10,763 MW8,650 MW8,500 MW

Our Investment Approach

We invest in power, digital infrastructure, and compute assets that we believe will generate strong risk-adjusted returns, strengthen our competitive position, and drive long-term shareholder value creation. Our investment approach is defined by rigorous underwriting, disciplined capital allocation, and active portfolio management. As we expand and diversify our business, we expect that more predictable and financeable, lower-cost-of-capital segments will form a larger share of our revenue mix. This approach is intended to support the development of an investment-grade infrastructure platform characterized by predictable revenue, intelligent capital structuring, long-lived contracts, creditworthiness, and disciplined risk management.

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Underwriting and Diligence. Before deploying capital, we generally undertake a due diligence process to evaluate risk-adjusted returns across financial, operational, commercial, legal, macroeconomic, and geopolitical dimensions. Our framework incorporates scenario modeling, stress testing, and sensitivity analysis as appropriate to quantify expected downside risk and assess potential long-term value creation. Across our platform, we generally invest only when expected returns are projected to meet or exceed identified thresholds for value creation, and we favor investments supported by long-term contracts with creditworthy counterparties. Beyond financial metrics, we prioritize opportunities that support our broader strategic objectives, enhance operational performance and scale, build durable relationships with world-class partners, and strengthen our competitive differentiation. Each opportunity is assessed for its potential to unlock platform synergies, drive scalable efficiencies, and reinforce our competitive position.

Portfolio Management. We take an active approach to portfolio management, driven by a dedicated portfolio management team that works cross-functionally to identify and address both asset-level and platform-wide value creation opportunities. Our approach includes targeted initiatives such as infrastructure upgrades, land expansion, and site-level use case transition. We leverage real-time energy market intelligence and analytics to optimize power costs, mitigate against volatility, and capitalize on arbitrage opportunities. We also maintain active engagement with governing bodies and grid operators to navigate regulatory complexities and to support the long-term reliability of our power assets and the grid.

Our Capital Strategy

Our capital strategy centers on two objectives: securing the lowest possible cost of capital and minimizing enterprise risk. We aim to maintain a robust, liquid balance sheet that enables us to explore creative financing approaches and prioritize non-dilutive sources of funding whenever possible.

Financing. We strive to optimize our cost of capital by taking a disciplined approach to capital formation and leveraging a range of financing instruments at the corporate and project levels. At the corporate level, we aim to balance equity issuance with strategic leverage in alignment with our view of the Company’s intrinsic value. While we remain sensitive to dilution, we recognize the importance of retaining the flexibility to raise capital when compelling growth opportunities arise or when market conditions are favorable. To support our disciplined approach, we employ tools such as at-the-market (“ATM”) offering programs and Bitcoin-backed credit facilities, which we view as strategic levers to optimize shareholder value, and enhance our ability to navigate market volatility. These tools enable us to fund growth initiatives and navigate the markets in which we operate. At the project level, we structure financing to align with the distinct objectives and needs of each opportunity we pursue, including traditional project financing for HPC data center development.

Treasury Management. Our treasury management strategy is designed to maintain liquidity, support consistent cash flow generation, and preserve balance sheet flexibility as we pursue capital-intensive growth initiatives, including digital infrastructure development. We actively manage our treasury with the goal of optimizing return on invested capital while ensuring sufficient financial optionality to fund operations and growth across market conditions. Our approach emphasizes disciplined capital deployment, prudent risk management, and the ability to monetize assets or deploy capital opportunistically as conditions warrant. By aligning our capital and operating strategies, we seek to enhance capital efficiency, support self-funded growth, and maximize long-term value creation for shareholders (see Exhibit 5).

Exhibit 5: Flywheel effect accelerates value creation across capital and operating strategies

Column 1Column 2Column 3
Capital Strategy​Allocate capital to projects with high ROIC​Aim to minimize dilution​Maintain healthy leverage levels and liquidityOperating Strategy​Expand Power layer in both scale and geography​Scale and diversify Digital Infrastructure layer​Build customer base

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Our Focus on Innovation

We take a first-principles approach to digital infrastructure development, designing each facility based on the specific performance, resiliency, and cost requirements of the workload it is intended to support. Rather than starting with end use workloads such as ASIC compute or GPU-based AI compute, we begin with underlying technical and economic requirements of the workload and engineer solutions accordingly. This application-agnostic, first-principles framework allows us to allocate capital efficiently, avoid overbuilding, and preserve flexibility as technologies and end markets evolve.

Our development model is organized around a tiered framework defined by redundancy and resiliency, which informs both capital intensity and operating economics. At one end of the spectrum are highly resilient, mission-critical facilities designed to support HPC workloads, where uptime and redundancy are often critical and capital requirements are meaningfully higher. At the other end are data centers optimized for ASIC compute, where minimal redundancy, relatively low capital intensity, and rapid deployment can drive superior cost structures and faster time to cash flow.

Across this spectrum, we apply a first-principles approach to innovation, grounded in our vertically integrated platform spanning Power, Digital Infrastructure, and Compute. This end-to-end operating exposure gives us direct insight into the technical and commercial drivers of infrastructure performance, enabling us to design and deploy value-engineered solutions that reduce cost, improve efficiency, and enhance optionality across our asset base. As a result, innovation is not episodic or application-specific, but embedded in how we underwrite, design, and scale infrastructure.

Case study: Applying operational insight to data center performance and innovation

-Highrise AI: Incubating and scaling an AI Cloud platform gave us first-hand visibility into the power density, cooling, networking, and uptime requirements of AI workloads, informing the design of a new AI-optimized data center infrastructure solution we co-developed with Vertiv for our River Bend campus.-Hut 8 Canada: Operating enterprise cloud and colocation data centers strengthened our understanding of contracted service delivery, SLAs, and the operational discipline required to support durable, investment-grade colocation revenue.-Power Generation: Owning and operating dispatchable generation assets deepened our expertise in power market dynamics, reliability, and operational control-capabilities that become increasingly important as behind-the-meter and bring-your-own-generation solutions gain relevance in large-load data center development.

Case study: Pioneering a new data center form factor for ASIC compute

At our Vega site, we pioneered a new data center form factor that challenges conventional assumptions about ASIC compute infrastructure and narrows the gap between ASIC and HPC data center architecture. Historically, data centers designed for ASIC compute relied on shelf-based deployments and forced-air cooling, making them suitable for ASIC compute but incompatible with workloads like HPC, which rely on rack-based deployments and, increasingly, liquid cooling. This architecture constrained infrastructure flexibility, limited potential applications, and left significant efficiency gains untapped. With our Vega project, we are disrupting this paradigm. The custom infrastructure we developed and engineered in-house for the project features high-density racks, direct-to-chip liquid cooling, and HVAC-supported air cooling. Inspired by traditional data center architecture but optimized for the economics and deployment speed of our agile ASIC compute infrastructure developments, this design enables Vega to support rack-based deployments of ASIC compute at densities of 180 kilowatts per rack, surpassing even the 120-kilowatt density required by NVIDIA’s latest Blackwell GPUs. And, despite these innovations, built Vega for an all-in cost of approximately $455,000 per megawatt, a fraction of traditional data center costs, and completed the initial energization of the site less than one year after acquiring it.

Case study: Developing and commercializing a next-generation ASIC miner

We partnered with BITMAIN Technologies Ltd. (“BITMAIN”), the world’s leading manufacturer of digital currency mining servers, to develop and launch the U3S21EXPH ASIC miner, an integral input in the design and commercialization of a new ASIC compute data center form factor. The U3S21EXPH was the first ASIC miner mass-commercialized by BITMAIN to feature direct liquid-to-chip cooling in a U form factor, allowing for high-density deployments of ASIC compute in the rack-based architecture we developed for Vega.

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Case study: Energizing a greenfield ASIC compute data center with custom containers in 78 days

​​
In Q1 2022, after acquiring 60 acres of land in West Texas, USBTC designed, developed, and energized Bravo, a 42 MW ASIC compute data center, in just 78 days at an all-in cost of approximately $350,000 per MW. This project was an early proof point of our innovation-driven approach. Rather than following the outsourced development model common among operators, we designed and built the site from the ground up, optimizing for speed, cost efficiency, and long-term performance. A key differentiator was our collaboration with a manufacturer to develop custom-modified containers engineered for the environmental conditions of West Texas, including extreme heat and dust exposure. These enhancements improved cooling, airflow, and operational efficiency, ultimately leading the manufacturer to mass-commercialize the design based on our innovations. Bravo established our internal benchmark for rapid, cost-effective infrastructure deployment, a standard we further advanced with our Salt Creek project, which we completed at an all-in cost of approximately $250,000 per MW.

Our Technology-Driven Operating Philosophy

Building on our deep infrastructure expertise, we operate with a technology-driven philosophy focused on optimizing the drivers of scale and returns. We implement scalable, data-driven processes that enhance the efficiency of our human capital, decrease operating expenses, and lower the marginal costs of expanding our operations. To support this approach, we have developed a proprietary software suite comprising three specialized applications (see Exhibit 5). Recognizing that energy costs represent a significant component of our overall cost structure, we have further embedded advanced data science capabilities within our Compute layer. This dedicated team develops server-level decision-making algorithms and profitability models that guide curtailment decisions, optimize energy consumption, and improve returns.

Exhibit 6: Our proprietary software suite

ApplicationDescriptionKey Functions
OperatorA front-end platform designed to optimize on-the-ground operations– Delivers real-time operational visibility for onsite personnel – Supports inventory, asset, and work-order management – Streamlines daily task coordination and issue resolution
OverwatchA back-end system designed to ensure data integrity and actionable intelligence– Centralizes collection and analytics of all data displayed in Operator – Ensures data integrity and system observability – Provides actionable insights for performance optimization
ReactorAn infrastructure control solution designed to optimize energy consumption– Automates curtailment control and demand response – Enables dynamic energy management and resource allocation – Integrates profitability modeling for optimized consumption decisions

Our Team

We aim to attract top talent and provide an environment where our teams are inspired to do their best work. We had 248 full-time employees in the United States and Canada as of December 31, 2025. We also hire part-time employees, temporary employees, or consultants as necessary, and we consider our relations with our employees to be good.

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Competition

Driven by the proliferation of next-generation, energy-intensive technologies such as ASIC compute and HPC, demand for energy capacity continues to outpace supply. For example, HPC workloads require high-density infrastructure with capacity demands multiples greater than many legacy data centers can provide, while ASIC compute remains a competitive market that requires operational efficiency and low-cost energy at scale. At the same time, grid interconnection bottlenecks have further constrained access to power and digital infrastructure development, while supply chain disruptions and regulatory constraints have extended lead times for critical infrastructure, including GPUs, ASICs, turbines, generators, and transformers.

In this supply-constrained environment, we believe success depends on the ability to secure scarce assets like power, data center equipment, and customers. We compete with digital infrastructure developers and large-scale Bitcoin miners for access to powered land and key inputs for facility development, such as building materials, data center equipment, and skilled labor. Additionally, we compete with cloud services providers and digital infrastructure developers for customers and specialized hardware. Within ASIC Compute, we participate in mining pools that compete for block rewards. See “Risk Factors—Risks Related to Our Business and Operations—We may not be able to compete effectively against our current and future competitors.”

Nonetheless, we believe we have established a defensible competitive advantage through our power-first, innovation-driven strategy, which is underpinned by a power-native team with a deep understanding of power markets, an application-agnostic framework for digital infrastructure design, end-to-end greenfield development capabilities, and our ability to use ASIC compute infrastructure development to rapidly and cost-effectively secure and monetize power.

Customers and Partners

Through our Digital Infrastructure layer, we aim to support energy-intensive workloads such as AI and ASIC compute for third-party customers. We are advancing scaled AI infrastructure development at our River Bend campus in Louisiana, where Fluidstack is expected to serve as tenant and Google is expected to provide a financial backstop that covers the lease payments and related pass-through obligations for the 15-year base lease term. We also provide managed services and ASIC colocation services to American Bitcoin through our Power and Digital Infrastructure segments, respectively; because American Bitcoin is a consolidated subsidiary, revenue from these intercompany agreements is eliminated in consolidation. Through our Hut 8 Canada brand, we provide cloud and colocation services to customers across a range of industries, including technology, financial services, government, and media. As of December 31, 2025, Hut 8 Canada served more than 200 customers through our five enterprise-grade data centers in Canada.

At the corporate level, we actively pursue partnerships across five primary categories: (i) utilities and power market participants, (ii) energy developers and asset owners, (iii) digital infrastructure developers and operators, (iv) large-scale consumers of load capacity, including enterprise and institutional counterparties, and (v) capital providers that allow access to innovative, low cost of capital financing. Through these partnerships, we seek to leverage our expertise in power origination, grid interconnection, large-load site development, infrastructure commercialization, and corporate finance to accelerate development timelines, optimize capital deployment, and enhance risk-adjusted returns across the platform.

Intellectual Property

We actively use specialized hardware and software for our operations. In some instances, source code and other software assets may be subject to an open-source license, as much technology development in this sector is open source. We intend to adhere to the terms of any license agreements that may be in place for these works.

We rely upon intellectual property protections, including trade secrets, trademarks, and copyright, and license the use of intellectual property rights owned and controlled by others. We have developed and may further develop specific proprietary hardware, software applications, or other intellectual property, and may choose to seek patents or other protections in the future.

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Regulatory Landscape

The laws and regulations applicable to our offerings are evolving and subject to interpretation and change. We operate in a complex and rapidly evolving regulatory environment and we are subject to a wide range of laws and regulations enacted by federal, state, provincial, and local governments, governmental agencies, and regulatory authorities, including the SEC, the Commodity Futures Trading Commission (“CFTC”), the Federal Trade Commission, and the Financial Crimes Enforcement Network of the U.S. Department of the Treasury (“FinCEN”), as well as similar entities in Canada and other countries. Other regulatory bodies, governmental or semi-governmental, have shown an increased interest in companies operating energy-intensive technologies, including HPC and ASIC compute infrastructure. For example, the energy consumption and environmental impact of data center operations have received heightened regulatory scrutiny, and future regulations may emphasize energy efficiency, sustainability, and grid reliability.

As we expand into the development and operation of large-scale data centers supporting HPC and AI workloads and, through Highrise AI, the operation of our AI cloud, our facilities are becoming subject to an increasing number of laws, ordinances, and regulations. Regulators and policymakers are increasingly focused on the governance, ethical use, and potential misuse of AI systems and advanced computing technologies, as well as cybersecurity, data protection, export controls, and compliance obligations applicable to large-scale data center and HPC infrastructure. Furthermore, Bitcoin and other digital assets are subject to anti-fraud regulations under federal and state commodity and/or securities laws, and digital asset derivative instruments are regulated by the CFTC and SEC. Certain jurisdictions have developed, or are developing, regulatory requirements specifically for digital assets and companies that transact in them. Regulatory frameworks applicable to AI and large-scale computing infrastructure are similarly developing and may vary significantly across jurisdictions. Regulations may substantially change in the future and it is presently not possible to know how regulations will apply to our business, or when they will be effective.

As the regulatory and legal environment evolves, we may become subject to new laws and regulations, which may affect business model and operations. We are unable to predict the impact that any new standards, legislation, laws, or regulations may have on our business at the time of filing this Annual Report. For additional discussion regarding the potential risks existing and future regulations pose to our business, see “Risk Factors.”

Additional Information

Our principal executive offices are located at 1101 Brickell Avenue, Suite N-1500, Miami, FL 33131. We were incorporated in the State of Delaware on January 27, 2023 for the purposes of effecting the Business Combination.

Our website address is hut8.com and our investor relations website is located at hut8.com/investors. Our Annual Reports on Form 10-K, Quarterly Reports on Form 10-Q, Current Reports on Form 8-K and amendments to those reports are available on our investor relations website free of charge as soon as reasonably practicable after they are filed with the SEC. The information contained on our website is not included in, nor incorporated by reference into, this Annual Report. Reports filed with the SEC also may be viewed at sec.gov.