The Last Chance to Reverse Climate Change
EX-SOLAR 2.0 - A cooling and energy integration platform that suppresses climate feedback loops
The Essence of the Problem
The climate crisis is not simply a matter of carbon emissions, but a self-amplifying system accelerated through feedback loops. EX-SOLAR 2.0 suppresses climate feedback loops by absorbing radiant heat in the atmosphere and converting it into pneumatic energy, delivering an integrated platform that provides electric-free cooling, air humidity control, power generation, and other energy services.
"There are many technologies that reduce carbon, but only one that suppresses feedback — EX-SOLAR 2.0"
What Is a Climate Feedback Loop?
A climate feedback loop refers to a cycle in which a specific phenomenon reinforces itself within the climate system. It is a key mechanism that accelerates climate change.
Reduced Glacier Reflectivity
As ice melts, its ability to reflect sunlight decreases, causing more heat to be absorbed, temperatures to rise sharply, and sea levels to increase.
Ocean Degassing
As sea temperatures rise, carbon dioxide dissolved in the ocean is released into the atmosphere, increasing atmospheric carbon concentration.
Increased Water Vapor
As temperatures rise, the amount of water vapor in the atmosphere increases. As a powerful greenhouse gas, it further strengthens the greenhouse effect and accelerates the vicious cycle.
Permafrost Thaw
As permafrost thaws, the carbon dioxide and methane trapped within it are released into the atmosphere, rapidly increasing greenhouse gas concentrations.
Why is feedback suppression important?
Irreversibility
Once feedback loops are triggered, they become irreversible and can lead to large-scale climate change.
Secondary Warming
Simple carbon reduction alone cannot stop secondary warming in natural systems.
Climate Stabilization
The key to climate stabilization is cutting the loop early.
"If we do not break climate feedbacks, the climate will remain unstable no matter how much carbon we reduce."
Therefore, feedback suppression is the decisive battleground for climate stabilization, and EX-SOLAR 2.0 is the technology with that leverage.
How Air Conditioners Affect the Earth’s Climate
In modern society, cooling demand is rising rapidly due to heat waves and high temperatures. However, conventional air conditioners are accelerating the climate crisis in the following ways:
High Electricity Consumption
Most air conditioners use massive amounts of power, increasing fossil-fuel-based electricity consumption and generating carbon emissions.
Climate Impact of Refrigerants
HFC (hydrofluorocarbon) refrigerants can be released into the atmosphere as greenhouse gases thousands of times more potent than CO₂.
Urban Heat Island Effect Caused by Heat Rejection
The heat released by outdoor units during air conditioner operation further raises temperatures in cities.
In other words, conventional cooling technology carries a dual challenge: adapting to climate change while also creating another feedback loop.
EX-SOLAR 2.0 operates as a zero-electricity cooling solution that can fundamentally transform these problems.
“Breaking the Cycle of Climate Instability – EX-SOLAR 2.0”
“It absorbs radiant heat, converts it into pneumatic energy, and achieves cooling and climate stabilization at the same time.”
Technology Flow of EX-SOLAR 2.0
EX-RAD (Radiant Absorption Device, Radiant Heat Absorption Device)
EX-CYCLE (Pneumatic Generation Device)

EX-SOLAR 2.0 Operating Concept (Operation Concept)
EX-SOLAR 2.0 converts Radiant Heat into Pneumatic Energy, then distributes that energy through a Pneumatic Pipeline Network installed in spaces with cooling demand.
The supplied pneumatic energy performs cooling operations through the dedicated thermal control device, EX-TCU (Thermal Control Unit),
and in public facilities and large-scale spaces, it is operated in an integrated manner through the EX-TCC Control Center (Thermal Control Center).
In areas without existing cooling equipment, a new standalone cooling system using environmentally friendly refrigerants (such as CO₂) is applied, delivering direct cooling services without relying on the power grid.
Key Features
Energy Independence
Self-cooling without reliance on the power grid
Carbon-Free Cooling
Operates without carbon emissions → potential carbon credit generation
Use of Eco-Friendly Refrigerant (CO₂)
Minimizes global warming potential (GWP)
Climate Welfare Infrastructure
An essential climate-response solution for heat-vulnerable areas
Disaster-Response Cooling
Operates even during outages and disasters
Air Factory & EX-Line
AIR-FACTORY is an integrated energy platform designed to flexibly accommodate a wide range of renewable energy sources, including solar radiation energy, wave power, wind power, microalgae oil, and biomass pellets. By repeatedly performing its proprietary EX-Cycle process, it stably produces large-scale pneumatic energy and provides energy services applicable to various fields, including power supply, industrial energy conversion, and eco-friendly cooling.
Thanks to this technological foundation and scalability, AIR-FACTORY is positioned as a core element of strategic national infrastructure that simultaneously advances energy security, carbon neutrality, and industrial competitiveness.
Mini Grid & Cooling-as-a-Service
Mini-Grid is a decentralized energy system that is realized autonomously without an external power grid by directly utilizing Pneumatic Energy supplied through EX-LINE at the point of demand and driving a Pneumatic Engine.
This structure can meet energy demand without electricity generation, making it a highly effective alternative for outage response, improved energy access, and carbon neutrality.
Cooling-as-a-Service is a system that delivers cooling by directly driving a pneumatic engine at demand points connected to EX-LINE, without requiring a separate power supply.
By providing cooling services using only its own pneumatic energy rather than relying on the external power grid, this approach achieves both energy independence and carbon reduction.
Functional Expansion of EX-SOLAR 2.0
Going beyond a simple radiant heat power generator — it has evolved into a multifunctional platform that integrates cooling, power, and atmospheric environment control.
Pneumatic Service
Supplies pneumatic energy produced from radiant heat to industrial, mobility, and cooling systems
Power Service
Produces carbon-free electricity through a pneumatic generator
Cooling Service
An electricity-free pneumatic cooling solution based on the EX-1 engine
Atmospheric Humidity Control
Controls moisture through air circulation to improve dehumidification and climate comfort
Integration with the Climate Stabilization Strategy Framework
Introduction Scenarios and Application Areas
1
Urban Areas
Introducing pneumatic cooling to homes, buildings, and schools
Reducing electricity costs and creating a comfortable indoor environment
2
Industrial Complexes
Process cooling and high-temperature environment response
Improving productivity and contributing to carbon reduction
3
Agriculture
Cold storage for harvested crops and greenhouse temperature control
Protecting crops and building a cold chain
4
Public Facilities
Hospitals, welfare centers, and disaster response infrastructure
Protecting socially vulnerable groups
5
AI Data Centers
Meeting cooling demand for high-heat AI compute-intensive facilities
Achieving PUE improvement and carbon-neutral data centers with cooling that consumes no electricity
Implementation Plan and Partnership Proposal
01
Phase 1
Launch pilot projects targeting urban heat island areas and power underserved zones
02
Phase 2
Scale up around public facilities, industrial complexes, and AI data centers
03
Phase 3
Platform integration with the carbon market and climate contribution credits
Potential Partners
Government agencies
Urban planning and energy ministries
International climate funds
Private ESG companies
AI data center operators
Potential for Linking Carbon Credits and Climate Contribution Credits
EX-SOLAR 2.0 can be converted into climate contribution indicators in the following markets through heat removal from the atmosphere and cooling-related carbon reduction effects, rather than direct CO₂ capture:
Article 6-based International Carbon Market
Utilizing the international carbon trading mechanism under Article 6 of the Paris Agreement
Climate Contribution Credit (CIC)
Value recognition through a contribution-based impact credit framework
ESG Fund Integration
Building a model that recognizes carbon avoidance items within private ESG funds
EX-SOLAR 2.0’s cooling system, at the first-generation level, delivers an annual carbon avoidance effect of approximately 4.2 tons of CO₂, and this expands into significant reduction potential as it is deployed across urban cold chain systems, public facilities, and industrial sites.
Climate Feedback Loop Blocking Project
CFLBP — A global project to structurally block climate feedback loops
Project Background and Purpose
The core of the climate crisis is not simply greenhouse gas emissions, but the self-amplifying response of natural systems known as the "climate feedback loop." This project aims to structurally advance climate stability by applying "climate feedback suppression technologies" to cities and industries worldwide.
Key Concept Definitions
  • Climate feedback loop: A cycle of climate change that accelerates itself through radiative heat, water vapor, methane, ocean degassing, and reduced glacier albedo
  • EX-SOLAR 2.0: A technology that absorbs radiant heat and converts it into pneumatics, delivering cooling, humidity control, and power services without electricity while suppressing climate feedback
Project Components
EX-RAD
Radiant Absorption Device (radiant heat absorption device) that collects radiant heat
EX-CYCLE
Converts radiant heat into air pressure at a constant pressure and controls atmospheric humidity
Pneumatic Storage
Stores the generated air pressure
EX-1
An electricity-free cooling engine powered by air pressure
EX-TCU
Thermal Control Unit that controls the cooling supplied to each demand point
EX-Air Diffuser
A clean and refreshing air diffuser that disperses cooling received from EX-TCU to consumers
Countries with Rapidly Growing Cooling Demand
As heatwaves intensify due to climate change and urbanization accelerates, cooling demand is rising explosively in the following countries.
India
Expected to become the world’s number one cooling-demand market by 2030, with sustainable cooling policies underway
Indonesia
Cooling demand is surging due to urbanization and hot, humid weather; infrastructure remains limited on many islands
Vietnam
Cooling demand is rising sharply during the summer, especially in central and southern regions, alongside accelerating industrialization
Bangladesh
Hot, humid climate and power shortages make it urgent to expand cooling access for low-income communities
Nigeria
As the largest population in Sub-Saharan Africa, cooling demand is growing rapidly despite weak power infrastructure
Philippines
Tropical climate and urban concentration mean low cooling penetration, but growth is rapid
Europe
Cooling demand is increasing rapidly amid repeated record-breaking heatwaves
Expected Impact
Suppressing Climate Feedback Loops
Directly interrupts the self-reinforcing cycle of climate change.
Avoided Carbon Emissions
Fundamentally reduces carbon emissions from cooling energy demand.
Urban Heat Island Relief
Reduces excess urban heat without the external heat release caused by air conditioners.
Climate-Contribution Carbon Credit Generation (CIC)
Creates new value and delivers economic benefits.
Partnership and Expansion Strategy
Partnership and Investment Attraction Strategy
  • Collaborate with the World Bank, the Green Climate Fund (GCF), private ESG funds, city governments, and others
  • Investment return model: carbon avoidance credits, cooling service fees, public facility contracts
Expansion Strategy
  • Secure rapid scalability through a modular platform
  • Build a local manufacturing and assembly system
  • Develop a climate contribution monitoring and reporting system (MRV)
1
2026~2027
Pilot projects in 5 countries
2
2028~2029
Second-phase country expansion and establishment of a carbon market linkage system
3
By 2030
Deploy feedback-blocking cooling systems in more than 50 cities worldwide
What Is Climate Contribution Revenue?
The climate contribution revenue of EX-SOLAR 2.0 is based on the following logic and rationale:
Radiative heat removal → suppression of climate feedback loops → climate stabilization effects, creating value distinct from traditional carbon reduction
Heat removal contributes to direct climate risk reduction, including slowing glacier melt in polar regions and moderating nighttime temperature increases
Using a benchmark approach, we estimate the equivalent value of radiative heat suppression relative to carbon credits ($50/ton), and set a baseline of $500,000 per module per year
Organizations such as the World Bank, GCF (Green Climate Fund), and ADB are considering qualitative contribution incentives for climate stabilization technologies
In the future, the institutional basis for monetization may be strengthened through verified pilot data and policy formalization
Expanding National Deployment Scenarios: Vietnam & Indonesia
🇻🇳 Vietnam (hot and humid, rapid urbanization)
  • Deployment areas: Ho Chi Minh City, Hanoi, and rural areas in south-central Vietnam
  • Key needs: surging summer cooling demand, unstable power infrastructure, strong interest in carbon neutrality
  • Strategy points: government co-pilot projects → contract to supply 50,000 cooling units → shared carbon credit revenue
🇮🇩 Indonesia (cooling-vulnerable areas in a tropical archipelago nation)
  • Deployment areas: densely populated cities such as Jakarta, Surabaya, and Bali
  • Key needs: high humidity and heat, rising middle-class energy burden, need for sustainable urbanization
  • Strategy points: linked to smart city initiatives → penetrate the private cooling market → connect carbon avoidance with international ESG funding
Expanding Country Application Scenarios: India & Saudi Arabia
🇮🇳 India (Power shortages + increasing hot seasons)
  • Target regions: Rajasthan, Gujarat, Uttar Pradesh, etc.
  • Key needs: Peak power load relief, shortage of cooling systems for low-income households
  • Strategy points: JV with local manufacturer → localize cooling unit production → distribute carbon credits within India
🇸🇦 Saudi Arabia (Growing dependence on power-based cooling)
  • Target regions: Riyadh, Dammam, and the new city of NEOM
  • Key needs: Movement to reduce power tariff subsidies, renewable energy expansion policies
  • Strategy points: Smart city integration → build central pneumatic cooling infrastructure → obtain international carbon reduction certification
Expansion of Country-Specific Application Scenarios: Europe & Africa
🇪🇺 Europe (Soaring electricity rates + stronger climate policy)
  • Deployment regions: Spain, Italy, southern France, Germany
  • Key needs: Insufficient cooling infrastructure, demand for building energy retrofits
  • Strategic focus: Link with the EU Renovation Wave → cooling solutions for aging buildings → secure ESG subsidies
🇰🇪 Kenya and Sub-Saharan Africa
  • Deployment regions: Urban centers such as Nairobi, Lagos, and Addis Ababa
  • Key needs: Rising heat stress due to climate change, limited access to cooling
  • Strategic focus: Partnerships with international development banks → build an integrated cooling + climate welfare support model
EX-SOLAR 2.0’s Innovation and Scalability
EX-SOLAR 2.0 converts radiant heat into pneumatic energy to deliver cooling services without electricity. Beyond that, it operates as a “climate multisolution platform” that also includes humidity control in the air, power generation, and carbon reduction, and it has the following characteristics:
Modular Scalability
Globally scalable in modular units
Localization-Friendly
Structure well suited for manufacturing and localization
Dual Impact
Delivers both cooling demand response and climate stabilization
Triple Revenue Structure
A three-part revenue model of carbon credits + climate contribution incentives + service revenue
The time is now to activate the decisive leverage
Carbon reduction efforts alone cannot stop the climate crisis. Only by removing radiative heat and suppressing climate feedback loops can we achieve true climate stabilization.
EX-SOLAR 2.0 is the world’s only solution that is technically ready, and it is the decisive leverage capable of directly confronting the climate risks facing humanity.
Now we must begin a new game for climate stabilization. And EX-SOLAR 2.0 will open that first chapter.
Appendix A — 용어 정의 (Glossary)
기후 피드백 루프 (Climate Feedback Loop)
A self-reinforcing cycle of climate change accelerated by radiative heat, water vapor, methane, ocean degassing, and reduced glacier albedo
EX-SOLAR 2.0
A technology platform that absorbs radiative heat and converts it into pneumatic energy. It provides cooling, humidity control, and power services without electricity while suppressing climate feedback
EX-RAD (Radiant Absorption Device)
A device that directly absorbs solar radiant heat
EX-CYCLE
A device that converts radiative heat into constant-pressure pneumatic energy and controls atmospheric humidity
EX-1
A cooling engine that uses pneumatic energy to deliver electricity-free cooling
EX-TCU (Thermal Control Unit)
A thermal control unit that regulates the cooling supplied to each demand site
EX-Air Diffuser
An air diffuser that delivers the cooling received from EX-TCU to consumers
AIR-FACTORY
An integrated pneumatic energy production platform that accommodates diverse renewable energy sources
EX-LINE
A pipeline network system that distributes pneumatic energy to demand sites
Mini-Grid
A decentralized energy system that directly uses pneumatic energy supplied through EX-LINE at the point of demand
CIC (Climate Impact Credit / 기후기여형 크레딧)
A credit recognized for its value in contributing to climate stabilization through a contribution-based impact credit framework
CFLBP (Climate Feedback Loop Blocking Project)
A global project that applies climate feedback suppression technology to cities and industries around the world to achieve structural climate stability
MRV (Monitoring, Reporting, Verification)
A system for measuring, reporting, and verifying climate contribution effects
PUE (Power Usage Effectiveness)
An energy efficiency metric for data centers. It can be improved when EX-SOLAR 2.0 cooling is applied
Appendix B — References
Climate Science & Policy
  • IPCC Sixth Assessment Report (AR6), 2021–2023 — scientific basis related to climate feedback loops and tipping points
  • IEA, "The Future of Cooling", 2018 — projections for global cooling demand growth
  • UNEP, "Cooling Emissions and Policy Synthesis Report", 2020 — current carbon emissions in the cooling sector
  • Paris Agreement, Article 6 — basis for international carbon market mechanisms
  • World Bank, "Cooling for All" Initiative — policy framework related to energy access and cooling welfare
Market & Technology Data
  • IEA, "World Energy Outlook 2023" — outlook for energy demand and renewable energy transition
  • BloombergNEF, "New Energy Outlook 2023" — outlook for ESG investment and carbon market growth
  • GCF (Green Climate Fund) — investment criteria and incentive framework for climate-benefit technologies
  • ADB (Asian Development Bank), "Asia's Energy Future" — status of cooling demand and energy infrastructure in Asia
  • ASHRAE Standard 90.1 — building energy efficiency and cooling system standards
  • Uptime Institute, "Global Data Center Survey 2023" — status of data center PUE and cooling demand