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$TE Mega Deep Dive: A Solar Play That will Power the New World 🚨 $TE represents one of the most strategically significant and timely developments in American clean energy infrastructure The company, which completed its transformation from a Norwegian battery manufacturer to a fully integrated U.S. solar manufacturing powerhouse in February 2025, is building the foundation of domestic energy independence at precisely the moment when America faces an existential challenge: how to power an AI driven economy while meeting ambitious climate and energy security objectives Data centers are consuming electricity at an unprecedented and accelerating pace These demands converge to create an electricity generation requirement that will dwarf historical precedent, the grid as currently constructed, cannot supply this power The Department of Energy projects solar will grow from 3% of U.S. electricity supply today to 40-45% by 2050 requiring installation of approximately 1,600 GW of solar capacity, a 15 fold increase Elon Musk has declared solar will become “by far the biggest source of power for civilization,” a sentiment increasingly echoed by energy analysts, utility executives, and technology company leaders Yet there exists a critical vulnerability in this solar vision: America cannot manufacture the solar panels to meet this demand The United States currently lacks integrated domestic capacity in polysilicon, wafers, solar cells, and modules at the scale required The industry has been almost entirely dependent on imports, leaving American energy security hostage to international supply chains, tariffs, and geopolitical disruptions T1 now operates the G1 Dallas facility a 5 GW utility scale solar module manufacturing plant in Wilmer, Texas, one of the world’s most advanced automated facilities The company is simultaneously constructing G2 Austin, a 5 GW integrated solar cell manufacturing facility in Rockdale, Texas, with Phase 1 (2.1 GW) targeted for production startup in Q4 2026 $TE has also has secured landmark partnerships with Corning for fully domestic polysilicon and wafer supply beginning in H2 2026, with Nextracker for domestic steel module frames, and with emerging competitors to build an entire ecosystem of vertically integrated American solar manufacturing creating the possibility of a truly integrated American supply chain from raw materials through finished modules $TE is creating the possibility of a truly integrated American supply chain from raw materials through finished modules What follows is a comprehensive analysis of T1 Energy from top to bottom Part 1- Sites G1 Dallas Manufacturing Facility Operations and Capabilities G1 Dallas features four fully operational utility scale production lines currently producing a mix of mono PERC (Passivated Emitter and Rear Cell) and TOPCon (Tunnel Oxide Passivated Contact) solar modules Mono PERC refers to a modification in standard solar cell design where a thin, reflective passivation layer is placed at the rear side of the cell, which acts to minimize electron recombination losses and increase light absorption TOPCon is a technology that uses an ultra thin silicon oxide layer (1–2 nm) as a tunnel barrier, combined with a heavily doped polysilicon contact on n-type silicon that facilitates quantum tunneling for efficient charge carrier transport (this is their preferred option) By Q3 2025, T1 sold approximately 725 MW of modules on total net sales of $200-$210 million The company expects Q4 2025 module sales to exceed the total of the first three quarters combined, with G1 Dallas targeted to reach a 4.5 GW annualized run rate by Q4 2025 G1 Dallas produces two primary module form factors designed for different market segments: Utility600W- A utility scale workhorse module designed for decades of highly efficient electrical output, optimized for solar farms and large scale installations. This module is designed for ground mounting systems Residential430W- One sided modules utilizing high density TOPCon technology that deliver considerable output for their compact size, suitable for residential and commercial installations G1 Austin Manufacturing Facility Operations and Capabilities Austin facility represents the company's strategic vision to build a fully integrated, vertically aligned U.S. solar supply chain from polysilicon to finished modules $TE selected a 100 acre site in Milam County, Texas, within the Advanced Manufacturing and Logistix Campus at Sandow Lakes Milam County Judge Bill Whitmire emphasized the partnership's importance, stating it brings "not just innovation, but the kind of high quality, good paying jobs that empower our local families and strengthen our community" The G2 Austin project represents up to an $850 million investment and is planned to create up to 1,800 advanced manufacturing jobs, the facility will produce advanced TOPCon solar cells using both 210RN and 210N silicon wafers $TE is implementing a phased development approach, with Phase 1 targeting 2.1 GW of annual solar cell production capacity at an estimated capital expenditure of $400-$425 million The company announced plans to commence construction on Phase 1 before the end of 2025, with production targeted to begin in Q4 2026, $TE selected Texas based Yates Construction to deliver pre construction services and site preparation Upon reaching full 5 GW capacity across both phases, G2 Austin will become one of the largest solar cell manufacturing facilities in the United States, positioning $TE as a major player in domestic solar cell production a critical segment of the supply chain that has been almost entirely dependent on imports Part 2- Funding and Capital Formation $TE has secured significant funding to initiate G2 Austin construction, in October 2025, the company completed a $72 million registered direct offering by selling 22,153,850 common shares at $3.25 per share Additionally, $TE secured a $50 million convertible preferred share issuance to funds managed by Encompass Capital Advisors CFO Evan Calio noted that while the company initially planned to secure debt financing first, strong interest from institutional equity investors led them to "opportunistically reorient the sequence of G2 capital formation" Part 3- Leadership Now that we know about their sites and how its getting funded lets take a slight step back and learn more about the people running the show CEO- Daniel Barcelo A CFA charterholder with a B.S. in Finance from Syracuse University, Barcelo is a seasoned energy investor who founded Alussa Energy and previously managed $500+ million at Moore Capital Management He was on the board of FRYER Battery and was appointed CEO when the transition began into T1 CFO- Evan Calio A rare Wall Street veteran who blends finance and law, Calio holds a J.D. from Widener University, an LLM from Georgetown Law Center, he spent 18 years at elite investment banks including Morgan Stanley and J.P. Morgan, plus four years as Special Counsel at the SEC, he joined in June 2024 CLO- Andy Munro Added to the leadership team in April 2025, Munro brings 30+ years of solar manufacturing legal expertise, having served as General Counsel at Qcells North America and Chief Legal Officer at Calypso Energy Part 4- Understanding the Solar Manufacturing Supply Chain Stage 1: Polysilicon Production The solar supply chain begins with metallurgical-grade silicon, which is refined from silica sand (silicon dioxide) one of the most abundant materials on Earth Metallurgical grade silicon is then purified to create solar grade polysilicon through the Siemens process, in this process silicon is reacted with hydrogen chloride to form trichlorosilane (TCS) gas After purification through distillation, the TCS is vaporized and mixed with hydrogen gas. In a deposition reactor, silicon slim rods are heated to approximately 1,100 degrees celcius, and the passing gas mixture results in high purity silicon being deposited on the surface of the rods This process continues until the rods reach a certain diameter (typically 150-200mm), creating U shaped polysilicon rods of exceptional purity Stage 2: Ingot and Wafer Production Polysilicon is melted at high temperatures and formed into ingots through one of two primary methods Monocrystalline and Multicrystalline which are both cooling and crystallization processes Silicon ingots are then sliced into very thin wafers (typically 160-180 micrometers thick) using diamond coated wire saws Stage 3: Solar Cell Fabrication Silicon wafers are fabricated into photovoltaic cells through several sophisticated processes Surface Texturing: Chemical texturing of the wafer surface removes saw damage and creates microscopic pyramidal structures Doping: Wafers are exposed to gases containing electrically active dopants to create the p-n junction that enables photovoltaic action Metallization: Conductive contacts are applied to collect the electrical current generated by the cell This cell fabrication stage is where T1's G2 Austin facility will operate, converting Corning's wafers into high efficiency TOPCon solar cells Stage 4: Module Assembly Solar cells are interconnected and assembled into complete modules through a sophisticated lamination process -Cells are arranged and interconnected with thin ribbons of conducting material -The interconnected cells are arranged face down on a sheet of glass covered with polymer encapsulate -A second sheet of encapsulate is placed on top, followed by a tough polymer back sheet or second glass layer -The entire stack is laminated in an oven to create a waterproof, weatherproof module -An aluminum frame, edge sealant, and junction box with bypass diodes are added This module assembly stage is performed at T1's operational G1 Dallas facility T1 Energy's strategic vision encompasses the entire supply chain from polysilicon through module assembly This level of vertical integration provides amazing upside and benefit to not only shareholders, but America as well! Part 5- Domestic Content Requirements and Policy Advantages First and foremost there are the Section 201 tariff's (make imported cells/modules more expensive) Section 201 is a “safeguard” tariff on imported crystalline silicon solar cells and modules, these expire 2026 however current Chinese tariff's are still making solar exports increasingly more expensive Section 45X is the Advanced Manufacturing Production Credit from the Inflation Reduction Act It pays per unit produced in the U.S. for a specified list of components: Solar module: $0.07/Wdc Solar cell: $0.04/Wdc PV wafer: $12/m² Solar-grade polysilicon: $3/kg 100% credit through end of 2029 Then phases down: 75% (2030), 50% (2031), 25% (2032), 0% after 2032 Commercial solar projects can qualify for an additional 10 percentage point Investment Tax Credit (ITC) bonus if they meet domestic content requirements For projects using the standard 30% ITC, meeting domestic content requirements increases the credit to 40% provided the project is either under 1 MW, began construction before January 29, 2023, or complies with prevailing wage and apprenticeship standards Steel and Iron Rule: 100% of the steel and iron used in the project must be manufactured in the United States, If this requirement is not met, the project will not qualify for the bonus regardless of other domestic content Manufactured Products Rule: At least 45% of the total cost of manufactured components (solar panels, inverters, racking) must be made in the U.S. This threshold increases to 55% in 2027 This policy framework creates enormous value for developers who can source domestic components. Consider a 20 MW ground mount solar project in Texas worth approximately $50 million in total project cost Without domestic content, the 30% ITC provides approximately $15 million in tax credits. With domestic content qualification, the 40% ITC provides approximately $20 million an additional $5 million in value that often exceeds the premium paid for domestic components $TE is strategically positioned to offer developers the highest levels of domestic content available in the U.S. market, once the Corning supply agreement becomes operational in H2 2026 and G2 Austin begins producing cells, T1 will be able to offer modules with: -100% U.S. made polysilicon (Corning/Hemlock Semiconductor, Michigan) 100% U.S. made wafers (Corning, Michigan) 100% U.S. made solar cells (T1 Energy G2 Austin, Texas) 100% U.S. made module assembly (T1 Energy G1 Dallas, Texas) Option for 100% U.S. made steel frames (Nextracker partnership) This fully domestic supply chain will enable $TE customers to qualify for the maximum domestic content bonus with significant margin to spare Moreover, $TE products will help developers meet the increasingly stringent Foreign Entity of Concern (FEOC) requirements Starting in 2026, solar projects will not qualify for tax credits under Sections 45Y or 48E unless at least 40% of the value of all manufactured products used comes from manufacturers that are not "prohibited foreign entities" (defined as entities from China, Iran, Russia, and North Korea) This percentage increases by 5% annually until reaching 60% for facilities beginning construction after December 31, 2029 These FEOC restrictions represent an existential threat to solar developers who have relied on Chinese manufactured components, with China controlling approximately 82% of global polysilicon production, the vast majority of wafer manufacturing, and roughly 80% of global module assembly capacity, most current supply chains cannot meet FEOC requirements without substantial restructuring You can start to see the importance of being fully vertically integrated Part 6- Why Solar Will Power America's Future The United States and the world face unprecedented growth in electricity demand driven by several simultaneous trends Artificial Intelligence and Data Centers: This represents perhaps the single largest and fastest growing source of electricity demand AI workloads are particularly energy intensive, a typical AI focused hyper scale data center annually consumes as much electricity as 100,000 households, and the larger facilities currently under construction are expected to consume 20 times that amount About 60% of data center electricity powers the servers themselves, with AI optimized hyper scale facilities using advanced GPUs that consume two to four times as many watts as traditional chips The AI industry's "major bottleneck" is power availability, As @elonmusk noted, AI data centers' power demands could reach 200 300 GW of continuous power, requiring massive expansion of generation capacity, without adequate power supply, AI innovation and America's competitive position in this critical technology will be constrained Industrial Reshoring: The United States is experiencing a renaissance in domestic manufacturing, driven by supply chain security concerns, favorable tax incentives, and automation reducing labor cost disadvantages Industrial sectors are expected to grow electricity consumption by 1,936 TWh by 2030 the largest component of global demand growth Total Demand Growth: The cumulative effect is dramatic, the Department of Energy projects that U.S. electricity demand, which has been relatively flat for two decades, will grow substantially, global electricity demand is projected to rise 30% by 2035 Part 7- Cold War The United States and China are engaged in a new Cold War, though few policymakers openly acknowledge its existence The battlefield is not intercontinental ballistic missiles or proxy wars in developing nations it is artificial intelligence, data center infrastructure, and the energy systems that power them The stakes are existential, as the Council on Foreign Relations notes, AI competition between the U.S. and China is increasingly framed as a national security imperative, with both nations recognizing that "AI confers significant geopolitical advantage" The U.S. grid is aging, transmission capacity is constrained, and interconnection queues stretch 4-8 years for major projects, more than 12,000 active projects representing 1,570 GW of generation capacity wait for grid connection The "speed to power" imperative means that time to energy wins and solar photovoltaics is the only technology that can deploy at the required velocity and scale While America debates permits and transmission lines, China has executed a comprehensive industrial strategy that makes it the undisputed global leader in solar manufacturing a position it will not relinquish without decisive American action Part 8- Why Solar? Cost Competitiveness: Solar has achieved dramatic cost reductions, with utility-scale solar now the cheapest form of new electricity generation in most locations. Leveled cost of energy (LCOE) for utility scale solar ranges from $30-$60/MWh in favorable locations, compared to $60-$100/MWh for natural gas combined cycle and $130-$200/MWh for new nuclear Deployment Speed: Solar installations can be permitted, constructed, and commissioned in 12-24 months for utility scale projects and 3-6 months for commercial installations. This is dramatically faster than natural gas plants (3-5 years), nuclear plants (7-15 years) Reliability with Storage: While solar generation is variable (producing only during daylight), pairing with battery storage creates firm, dispatchable capacity, battery costs have declined 90% over the past decade, making solar plus storage competitive with natural gas peaking plants Modern systems use AI driven controls to optimize charging/discharging, participate in grid services markets, and maximize renewable utilization Environmental and Regulatory Advantages: Solar produces zero direct emissions, has minimal water consumption (unlike thermal generation), and enjoys strong public acceptance, corporate sustainability commitments, state renewable portfolio standards, and federal tax incentives all favor solar deployment Massive Capacity Growth: Solar is estimated to grow from 3% of U.S. electricity supply today to 40% by 2035 and 45% by 2050, in 2050, this would be supplied by approximately 1,600 GW of solar capacity installed Employment Impact: At the levels of growth envisioned, the solar industry could employ 500,000 to 1.5 million people by 2035 The computing industry's energy demands appear nearly insatiable. Training a single large language model like GPT-5 can consume 50,000 MWh of electricity equivalent to the annual consumption of 5,000 American homes, as AI models grow larger and more sophisticated, training energy requirements increase exponentially Inference (running queries against trained models) also scales rapidly as AI features spread into search, office software, media, customer support, and countless other applications Part 9- Risk A critical challenge limiting solar and renewable energy deployment is grid interconnection constraints, more than 12,000 active projects are currently seeking grid interconnection, representing 1,570 GW of generator capacity and 1,030 GW of storage, interconnection queue wait times have increased dramatically, with utilities requiring 4-8 years for major projects to connect These constraints are driving interest in "behind the meter" approaches where solar generation and battery storage are co located directly with data centers and industrial facilities, bypassing the grid entirely for primary power Companies like $GOOGL, $AMZN, and $MSFT are pursuing energy campus development strategies that integrate renewable generation with data center infrastructure on the same site There are also execution risks in G2 Austin, the project involves sophisticated manufacturing equipment, complex process development, and substantial capital requirements ($400-$425 million for Phase 1) Delays, cost overruns, or technical difficulties could materially impact financial projections, the company's targeted Q4 2026 production start is aggressive given the current Q4 2025 construction start timeline The global solar module market faces substantial oversupply, with Chinese manufacturers producing twice as many panels as global demand, this has led to sustained pricing pressure that compresses margins for all manufacturers While domestic content requirements and trade barriers provide some insulation for U.S. producers, module pricing in the domestic market has still declined substantially from 2022-2023 peaks There is also constant regulation risks, what happens if precious tax credits go away? Unlikely but as you see with ACA nothing is ever impossible $FSLR exists and is already a fully integrated solar company within the US, $TE has competition from more mature companies Lastly there are customer concentration issues, revenue is dependent on a limited number of large offtake agreements with utility scale developers and module distributors The Q3 2025 intangible impairment of $53.2 million related to an off take contract dispute illustrates the risks of customer concentration, loss of major customers or disputes over contract terms could significantly impact revenues and cash flow Part 10- 2026 Price Forecasting I did my best to make a forecast for 2026, it took over 5 hours and was very difficult for a few reasons No one I have seen yet has done a real one, that really goes deep in the numbers and rules, it was hard to just set up the structure of the forecast I did my best and its by no means perfect but it should give a good idea as to a base model of understanding I will leave a link to the sheets here, PLEASE take a look and let me know what you think, copy and paste it over to your own sheet and play around https://t.co/oyzp4VfAOV I used Sum of the Parts (SOTP) Valuation I will also go over my assumptions -Dallas Production: 4.8 GW in 2026 (96% utilization, conservative vs. nameplate) ASP: $280/kW (vs. Q3 actual $283/kW; accounts for modest pricing pressure) Gross margin: 28% (vs. Q3 actual 23.4%; improvement from scale and learning curve) Section 45X credits: $0.07/watt on 70% of volume = $235M annual subsidy Cash EBITDA (ops + 45X): $511.52M Multiple: 12x (vs. First Solar 15-20x; reflects ramp risk, competitive market, but solid fundamentals) Why 12x is fair: G1 is operational and shipping, not speculative 45X credits are statutory and guaranteed through 2029 But still ramping (execution risk), and solar is competitive 12x is conservative but not insulting -Austin 2027 production: 1,575 MW (75% utilization in ramp year) Cell ASP: $110/kW (premium for TOPCon + domestic content) Gross margin: 36% (higher than modules because cells are value-add, fewer competitors) Section 45X credits: $0.04/watt on 100% of volume = $63M annual subsidy (100% qualifies because Corning wafers are fully domestic) Undiscounted cash EBITDA (2027): $95.37M Base multiple: 14x (premium to G1 for value add) Undiscounted value: $1,335M Risk discounts: Development risk (25%): construction, commissioning, ramp Time value (15%): cash flows start 2027, valued end 2026 Combined: 36.25% haircut -Corning Without Corning, G2 cell margin = 20% With Corning, G2 cell margin = 36% Margin uplift = $27.72M annually Annual margin benefit: $27.72M Multiple: 14x (same as G2 cells) Discount: 23.5% (10% execution + 15% time; lower than G2 because Corning is Tier 1 company with committed capex) -Other Talon PV investment: $5M cost marked at 3x = $15M (minority stake in TOPCon cell startup) Section 45X credits accrued: $93M from Q3 2025 balance sheet, monetizable Q4–Q1 Conclusion I sincerely hope this was a read worth your time, my goal was to make a well thought out and detailed thesis/overview of $TE For all the reasons stated above and the way I see AI, energy, and demand growing, it is a buy for me and one of only 3 names I hold But at just 600M MC understand what you are buying, because I do Just keep in mind, all of this is NFA if you do decide to buy $TE makes up 10% of my portfolio but I understand the risk, it could easily go to Zero, many companies like this have before This is undoubtedly a speculative play on solar What attracts me about $TE is IF it does go to plan, and they are a fully vertically integrated company within the US, than I believe this has 10x+ gain potential I am holding this for a 3-5 year timeline, im going to let thesis play out, a lot of execution,construction and dilution needs to happen I am also prepared to hold this during deep red times, im ready to even see this fall under $2 dollars, its daily price action doesn't affect me Let me know what you all think about $TE Do you like it? Do you hate it? Somewhere in between? Thanks again for reading, have a great day

accounting_ds's tweet photo. $TE Mega Deep Dive:
A Solar Play That will Power the New World 🚨

$TE represents one of the most strategically significant and timely developments in American clean energy infrastructure

The company, which completed its transformation from a Norwegian battery manufacturer to a fully integrated U.S. solar manufacturing powerhouse in February 2025, is building the foundation of domestic energy independence at precisely the moment when America faces an existential challenge: how to power an AI driven economy while meeting ambitious climate and energy security objectives

Data centers are consuming electricity at an unprecedented and accelerating pace

These demands converge to create an electricity generation requirement that will dwarf historical precedent, the grid as currently constructed, cannot supply this power

The Department of Energy projects solar will grow from 3% of U.S. electricity supply today to 40-45% by 2050 requiring installation of approximately 1,600 GW of solar capacity, a 15 fold increase

Elon Musk has declared solar will become “by far the biggest source of power for civilization,” a sentiment increasingly echoed by energy analysts, utility executives, and technology company leaders

Yet there exists a critical vulnerability in this solar vision: America cannot manufacture the solar panels to meet this demand

The United States currently lacks integrated domestic capacity in polysilicon, wafers, solar cells, and modules at the scale required

The industry has been almost entirely dependent on imports, leaving American energy security hostage to international supply chains, tariffs, and geopolitical disruptions

T1 now operates the G1 Dallas facility a 5 GW utility scale solar module manufacturing plant in Wilmer, Texas, one of the world’s most advanced automated facilities

The company is simultaneously constructing G2 Austin, a 5 GW integrated solar cell manufacturing facility in Rockdale, Texas, with Phase 1 (2.1 GW) targeted for production startup in Q4 2026

$TE has also has secured landmark partnerships with Corning for fully domestic polysilicon and wafer supply beginning in H2 2026, with Nextracker for domestic steel module frames, and with emerging competitors to build an entire ecosystem of vertically integrated American solar manufacturing

creating the possibility of a truly integrated American supply chain from raw materials through finished modules

$TE is creating the possibility of a truly integrated American supply chain from raw materials through finished modules

What follows is a comprehensive analysis of T1 Energy from top to bottom

Part 1- Sites

G1 Dallas Manufacturing Facility Operations and Capabilities

G1 Dallas features four fully operational utility scale production lines currently producing a mix of mono PERC (Passivated Emitter and Rear Cell) and TOPCon (Tunnel Oxide Passivated Contact) solar modules

Mono PERC refers to a modification in standard solar cell design where a thin, reflective passivation layer is placed at the rear side of the cell, which acts to minimize electron recombination losses and increase light absorption

TOPCon is a technology that uses an ultra thin silicon oxide layer (1–2 nm) as a tunnel barrier, combined with a heavily doped polysilicon contact on n-type silicon that facilitates quantum tunneling for efficient charge carrier transport (this is their preferred option)

By Q3 2025, T1 sold approximately 725 MW of modules on total net sales of $200-$210 million

The company expects Q4 2025 module sales to exceed the total of the first three quarters combined, with G1 Dallas targeted to reach a 4.5 GW annualized run rate by Q4 2025

G1 Dallas produces two primary module form factors designed for different market segments:

Utility600W- A utility scale workhorse module designed for decades of highly efficient electrical output, optimized for solar farms and large scale installations. This module is designed for ground mounting systems

Residential430W- One sided modules utilizing high density TOPCon technology that deliver considerable output for their compact size, suitable for residential and commercial installations

G1 Austin Manufacturing Facility Operations and Capabilities

Austin facility represents the company's strategic vision to build a fully integrated, vertically aligned U.S. solar supply chain from polysilicon to finished modules

$TE selected a 100 acre site in Milam County, Texas, within the Advanced Manufacturing and Logistix Campus at Sandow Lakes

Milam County Judge Bill Whitmire emphasized the partnership's importance, stating it brings "not just innovation, but the kind of high quality, good paying jobs that empower our local families and strengthen our community"

The G2 Austin project represents up to an $850 million investment and is planned to create up to 1,800 advanced manufacturing jobs, the facility will produce advanced TOPCon solar cells using both 210RN and 210N silicon wafers

$TE is implementing a phased development approach, with Phase 1 targeting 2.1 GW of annual solar cell production capacity at an estimated capital expenditure of $400-$425 million

The company announced plans to commence construction on Phase 1 before the end of 2025, with production targeted to begin in Q4 2026, $TE selected Texas based Yates Construction to deliver pre construction services and site preparation

Upon reaching full 5 GW capacity across both phases, G2 Austin will become one of the largest solar cell manufacturing facilities in the United States, positioning $TE as a major player in domestic solar cell production a critical segment of the supply chain that has been almost entirely dependent on imports

Part 2- Funding and Capital Formation

$TE has secured significant funding to initiate G2 Austin construction, in October 2025, the company completed a $72 million registered direct offering by selling 22,153,850 common shares at $3.25 per share

Additionally, $TE secured a $50 million convertible preferred share issuance to funds managed by Encompass Capital Advisors

CFO Evan Calio noted that while the company initially planned to secure debt financing first, strong interest from institutional equity investors led them to "opportunistically reorient the sequence of G2 capital formation"

Part 3- Leadership

Now that we know about their sites and how its getting funded lets take a slight step back and learn more about the people running the show

CEO- Daniel Barcelo

A CFA charterholder with a B.S. in Finance from Syracuse University, Barcelo is a seasoned energy investor who founded Alussa Energy and previously managed $500+ million at Moore Capital Management

He was on the board of FRYER Battery and was appointed CEO when the transition began into T1

CFO- Evan Calio

A rare Wall Street veteran who blends finance and law, Calio holds a J.D. from Widener University, an LLM from Georgetown Law Center, he spent 18 years at elite investment banks including Morgan Stanley and J.P. Morgan, plus four years as Special Counsel at the SEC, he joined
in June 2024

CLO- Andy Munro

Added to the leadership team in April 2025, Munro brings 30+ years of solar manufacturing legal expertise, having served as General Counsel at Qcells North America and Chief Legal Officer at Calypso Energy

Part 4- Understanding the Solar Manufacturing Supply Chain

Stage 1: Polysilicon Production

The solar supply chain begins with metallurgical-grade silicon, which is refined from silica sand (silicon dioxide) one of the most abundant materials on Earth

Metallurgical grade silicon is then purified to create solar grade polysilicon through the Siemens process, in this process silicon is reacted with hydrogen chloride to form trichlorosilane (TCS) gas

After purification through distillation, the TCS is vaporized and mixed with hydrogen gas. In a deposition reactor, silicon slim rods are heated to approximately 1,100 degrees celcius, and the passing gas mixture results in high purity silicon being deposited on the surface of the rods

This process continues until the rods reach a certain diameter (typically 150-200mm), creating U shaped polysilicon rods of exceptional purity

Stage 2: Ingot and Wafer Production

Polysilicon is melted at high temperatures and formed into ingots through one of two primary methods

Monocrystalline and Multicrystalline which are both cooling and crystallization processes

Silicon ingots are then sliced into very thin wafers (typically 160-180 micrometers thick) using diamond coated wire saws

Stage 3: Solar Cell Fabrication

Silicon wafers are fabricated into photovoltaic cells through several sophisticated processes

Surface Texturing: Chemical texturing of the wafer surface removes saw damage and creates microscopic pyramidal structures

Doping: Wafers are exposed to gases containing electrically active dopants to create the p-n junction that enables photovoltaic action

Metallization: Conductive contacts are applied to collect the electrical current generated by the cell

This cell fabrication stage is where T1's G2 Austin facility will operate, converting Corning's wafers into high efficiency TOPCon solar cells

Stage 4: Module Assembly

Solar cells are interconnected and assembled into complete modules through a sophisticated lamination process

-Cells are arranged and interconnected with thin ribbons of conducting material

-The interconnected cells are arranged face down on a sheet of glass covered with polymer encapsulate

-A second sheet of encapsulate is placed on top, followed by a tough polymer back sheet or second glass layer

-The entire stack is laminated in an oven to create a waterproof, weatherproof module

-An aluminum frame, edge sealant, and junction box with bypass diodes are added

This module assembly stage is performed at T1's operational G1 Dallas facility

T1 Energy's strategic vision encompasses the entire supply chain from polysilicon through module assembly

This level of vertical integration provides amazing upside and benefit to not only shareholders, but America as well!

Part 5- Domestic Content Requirements and Policy Advantages

First and foremost there are the Section 201 tariff's
(make imported cells/modules more expensive)

Section 201 is a “safeguard” tariff on imported crystalline silicon solar cells and modules, these expire 2026 however current Chinese tariff's are still making solar exports increasingly more expensive

Section 45X is the Advanced Manufacturing Production Credit from the Inflation Reduction Act

It pays per unit produced in the U.S. for a specified list of components:

Solar module: $0.07/Wdc

Solar cell: $0.04/Wdc

PV wafer: $12/m²

Solar-grade polysilicon: $3/kg

100% credit through end of 2029

Then phases down: 75% (2030), 50% (2031), 25% (2032), 0% after 2032

Commercial solar projects can qualify for an additional 10 percentage point Investment Tax Credit (ITC) bonus if they meet domestic content requirements

For projects using the standard 30% ITC, meeting domestic content requirements increases the credit to 40% provided the project is either under 1 MW, began construction before January 29, 2023, or complies with prevailing wage and apprenticeship standards

Steel and Iron Rule: 100% of the steel and iron used in the project must be manufactured in the United States, If this requirement is not met, the project will not qualify for the bonus regardless of other domestic content

Manufactured Products Rule: At least 45% of the total cost of manufactured components (solar panels, inverters, racking) must be made in the U.S. This threshold increases to 55% in 2027

This policy framework creates enormous value for developers who can source domestic components. Consider a 20 MW ground mount solar project in Texas worth approximately $50 million in total project cost

Without domestic content, the 30% ITC provides approximately $15 million in tax credits. With domestic content qualification, the 40% ITC provides approximately $20 million an additional $5 million in value that often exceeds the premium paid for domestic components

$TE is strategically positioned to offer developers the highest levels of domestic content available in the U.S. market, once the Corning supply agreement becomes operational in H2 2026 and G2 Austin begins producing cells, T1 will be able to offer modules with:

-100% U.S. made polysilicon (Corning/Hemlock Semiconductor, Michigan)

100% U.S. made wafers (Corning, Michigan)

100% U.S. made solar cells (T1 Energy G2 Austin, Texas)

100% U.S. made module assembly (T1 Energy G1 Dallas, Texas)

Option for 100% U.S. made steel frames (Nextracker partnership)

This fully domestic supply chain will enable $TE customers to qualify for the maximum domestic content bonus with significant margin to spare

Moreover, $TE products will help developers meet the increasingly stringent Foreign Entity of Concern (FEOC) requirements

Starting in 2026, solar projects will not qualify for tax credits under Sections 45Y or 48E unless at least 40% of the value of all manufactured products used comes from manufacturers that are not "prohibited foreign entities" (defined as entities from China, Iran, Russia, and North Korea)

This percentage increases by 5% annually until reaching 60% for facilities beginning construction after December 31, 2029

These FEOC restrictions represent an existential threat to solar developers who have relied on Chinese manufactured components, with China controlling approximately 82% of global polysilicon production, the vast majority of wafer manufacturing, and roughly 80% of global module assembly capacity, most current supply chains cannot meet FEOC requirements without substantial restructuring

You can start to see the importance of being fully vertically integrated

Part 6- Why Solar Will Power America's Future

The United States and the world face unprecedented growth in electricity demand driven by several simultaneous trends

Artificial Intelligence and Data Centers: This represents perhaps the single largest and fastest growing source of electricity demand

AI workloads are particularly energy intensive, a typical AI focused hyper scale data center annually consumes as much electricity as 100,000 households, and the larger facilities currently under construction are expected to consume 20 times that amount

About 60% of data center electricity powers the servers themselves, with AI optimized hyper scale facilities using advanced GPUs that consume two to four times as many watts as traditional chips

The AI industry's "major bottleneck" is power availability, As @elonmusk noted, AI data centers' power demands could reach 200 300 GW of continuous power, requiring massive expansion of generation capacity, without adequate power supply, AI innovation and America's competitive position in this critical technology will be constrained

Industrial Reshoring: The United States is experiencing a renaissance in domestic manufacturing, driven by supply chain security concerns, favorable tax incentives, and automation reducing labor cost disadvantages

Industrial sectors are expected to grow electricity consumption by 1,936 TWh by 2030 the largest component of global demand growth

Total Demand Growth: The cumulative effect is dramatic, the Department of Energy projects that U.S. electricity demand, which has been relatively flat for two decades, will grow substantially, global electricity demand is projected to rise 30% by 2035

Part 7- Cold War

The United States and China are engaged in a new Cold War, though few policymakers openly acknowledge its existence

The battlefield is not intercontinental ballistic missiles or proxy wars in developing nations it is artificial intelligence, data center infrastructure, and the energy systems that power them

The stakes are existential, as the Council on Foreign Relations notes, AI competition between the U.S. and China is increasingly framed as a national security imperative, with both nations recognizing that "AI confers significant geopolitical advantage"

The U.S. grid is aging, transmission capacity is constrained, and interconnection queues stretch 4-8 years for major projects, more than 12,000 active projects representing 1,570 GW of generation capacity wait for grid connection

The "speed to power" imperative means that time to energy wins and solar photovoltaics is the only technology that can deploy at the required velocity and scale

While America debates permits and transmission lines, China has executed a comprehensive industrial strategy that makes it the undisputed global leader in solar manufacturing a position it will not relinquish without decisive American action

Part 8- Why Solar?

Cost Competitiveness: Solar has achieved dramatic cost reductions, with utility-scale solar now the cheapest form of new electricity generation in most locations. Leveled cost of energy (LCOE) for utility scale solar ranges from $30-$60/MWh in favorable locations, compared to $60-$100/MWh for natural gas combined cycle and $130-$200/MWh for new nuclear

Deployment Speed: Solar installations can be permitted, constructed, and commissioned in 12-24 months for utility scale projects and 3-6 months for commercial installations. This is dramatically faster than natural gas plants (3-5 years), nuclear plants (7-15 years)

Reliability with Storage: While solar generation is variable (producing only during daylight), pairing with battery storage creates firm, dispatchable capacity, battery costs have declined 90% over the past decade, making solar plus storage competitive with natural gas peaking plants

Modern systems use AI driven controls to optimize charging/discharging, participate in grid services markets, and maximize renewable utilization

Environmental and Regulatory Advantages: Solar produces zero direct emissions, has minimal water consumption (unlike thermal generation), and enjoys strong public acceptance, corporate sustainability commitments, state renewable portfolio standards, and federal tax incentives all favor solar deployment

Massive Capacity Growth: Solar is estimated to grow from 3% of U.S. electricity supply today to 40% by 2035 and 45% by 2050, in 2050, this would be supplied by approximately 1,600 GW of solar capacity installed

Employment Impact: At the levels of growth envisioned, the solar industry could employ 500,000 to 1.5 million people by 2035

The computing industry's energy demands appear nearly insatiable. Training a single large language model like GPT-5 can consume 50,000 MWh of electricity equivalent to the annual consumption of 5,000 American homes, as AI models grow larger and more sophisticated, training energy requirements increase exponentially

Inference (running queries against trained models) also scales rapidly as AI features spread into search, office software, media, customer support, and countless other applications

Part 9- Risk

A critical challenge limiting solar and renewable energy deployment is grid interconnection constraints, more than 12,000 active projects are currently seeking grid interconnection, representing 1,570 GW of generator capacity and 1,030 GW of storage, interconnection queue wait times have increased dramatically, with utilities requiring 4-8 years for major projects to connect

These constraints are driving interest in "behind the meter" approaches where solar generation and battery storage are co located directly with data centers and industrial facilities, bypassing the grid entirely for primary power

Companies like $GOOGL, $AMZN, and $MSFT are pursuing energy campus development strategies that integrate renewable generation with data center infrastructure on the same site

There are also execution risks in G2 Austin, the project involves sophisticated manufacturing equipment, complex process development, and substantial capital requirements ($400-$425 million for Phase 1)

Delays, cost overruns, or technical difficulties could materially impact financial projections, the company's targeted Q4 2026 production start is aggressive given the current Q4 2025 construction start timeline

The global solar module market faces substantial oversupply, with Chinese manufacturers producing twice as many panels as global demand, this has led to sustained pricing pressure that compresses margins for all manufacturers

While domestic content requirements and trade barriers provide some insulation for U.S. producers, module pricing in the domestic market has still declined substantially from 2022-2023 peaks

There is also constant regulation risks, what happens if precious tax credits go away? Unlikely but as you see with ACA nothing is ever impossible

$FSLR exists and is already a fully integrated solar company within the US, $TE has competition from more mature companies

Lastly there are customer concentration issues, revenue is dependent on a limited number of large offtake agreements with utility scale developers and module distributors

The Q3 2025 intangible impairment of $53.2 million related to an off take contract dispute illustrates the risks of customer concentration, loss of major customers or disputes over contract terms could significantly impact revenues and cash flow

Part 10- 2026 Price Forecasting

I did my best to make a forecast for 2026, it took over 5 hours and was very difficult for a few reasons

No one I have seen yet has done a real one, that really goes deep in the numbers and rules, it was hard to just set up the structure of the forecast

I did my best and its by no means perfect but it should give a good idea as to a base model of understanding

I will leave a link to the sheets here, PLEASE take a look and let me know what you think, copy and paste it over to your own sheet and play around

https://t.co/oyzp4VfAOV

I used Sum of the Parts (SOTP) Valuation

I will also go over my assumptions

-Dallas

Production: 4.8 GW in 2026 (96% utilization, conservative vs. nameplate)

ASP: $280/kW (vs. Q3 actual $283/kW; accounts for modest pricing pressure)

Gross margin: 28% (vs. Q3 actual 23.4%; improvement from scale and learning curve)

Section 45X credits: $0.07/watt on 70% of volume = $235M annual subsidy

Cash EBITDA (ops + 45X): $511.52M

Multiple: 12x (vs. First Solar 15-20x; reflects ramp risk, competitive market, but solid fundamentals)

Why 12x is fair:

G1 is operational and shipping, not speculative

45X credits are statutory and guaranteed through 2029

But still ramping (execution risk), and solar is competitive

12x is conservative but not insulting

-Austin

2027 production: 1,575 MW (75% utilization in ramp year)

Cell ASP: $110/kW (premium for TOPCon + domestic content)

Gross margin: 36% (higher than modules because cells are value-add, fewer competitors)

Section 45X credits: $0.04/watt on 100% of volume = $63M annual subsidy (100% qualifies because Corning wafers are fully domestic)

Undiscounted cash EBITDA (2027): $95.37M

Base multiple: 14x (premium to G1 for value add)

Undiscounted value: $1,335M

Risk discounts:
Development risk (25%): construction, commissioning, ramp
Time value (15%): cash flows start 2027, valued end 2026
Combined: 36.25% haircut

-Corning

Without Corning, G2 cell margin = 20%

With Corning, G2 cell margin = 36%

Margin uplift = $27.72M annually

Annual margin benefit: $27.72M

Multiple: 14x (same as G2 cells)

Discount: 23.5% (10% execution + 15% time; lower than G2 because Corning is Tier 1 company with committed capex)

-Other

Talon PV investment: $5M cost marked at 3x = $15M (minority stake in TOPCon cell startup)

Section 45X credits accrued: $93M from Q3 2025 balance sheet, monetizable Q4–Q1

Conclusion

I sincerely hope this was a read worth your time, my goal was to make a well thought out and detailed thesis/overview of $TE

For all the reasons stated above and the way I see AI, energy, and demand growing, it is a buy for me and one of only 3 names I hold

But at just 600M MC understand what you are buying, because I do

Just keep in mind, all of this is NFA if you do decide to buy

$TE makes up 10% of my portfolio but I understand the risk, it could easily go to Zero, many companies like this have before

This is undoubtedly a speculative play on solar

What attracts me about $TE is IF it does go to plan, and they are a fully vertically integrated company within the US, than I believe this has 10x+ gain potential

I am holding this for a 3-5 year timeline, im going to let thesis play out, a lot of execution,construction and dilution needs to happen

I am also prepared to hold this during deep red times, im ready to even see this fall under $2 dollars, its daily price action doesn't affect me

Let me know what you all think about $TE

Do you like it? Do you hate it? Somewhere in between?

Thanks again for reading, have a great day

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