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Monday 09:00 - 17:00 Tuesday 09:00 - 17:00 Wednesday 09:00 - 17:00 Thursday 09:00 - 17:00 Friday 09:00 - 17:00

Sepik Wetlands & Peatlands Limited, PO Box, Port Moresby (2026)

13/06/2026

📚 LESSON 56: FOREST PROTECTION PROJECTS

Stage 2 – Carbon Credit Basics

Forest protection projects are among the most common and impactful types of carbon credit projects. Their primary goal is to prevent deforestation and forest degradation, which are major sources of greenhouse gas emissions worldwide.

Trees absorb carbon dioxide from the atmosphere through photosynthesis and store it in their trunks, branches, roots, and surrounding soils. When forests are cleared or burned, much of this stored carbon is released back into the atmosphere, contributing to climate change.

Forest protection projects work by conserving existing forests that might otherwise be logged, converted to agriculture, or degraded by other human activities. By preventing these emissions, the projects can generate carbon credits based on the amount of carbon kept out of the atmosphere.

In Papua New Guinea, forest protection projects have significant potential because the country contains some of the world’s largest intact tropical rainforests. These forests support rich biodiversity, regulate water systems, and provide livelihoods for local and Indigenous communities.

Beyond carbon benefits, forest protection projects can help preserve wildlife habitats, strengthen community development, support sustainable livelihoods, and protect cultural heritage.

When properly designed and independently verified, forest protection projects create environmental, social, and economic value while contributing to global climate goals.

🌐 Learn more: www.sepikwpl.com

30/05/2026

📚 LESSON 55: PROJECTS THAT CREATE CREDITS

Stage 2 – Carbon Credit Basics

Carbon credits are created by projects that reduce, avoid, or remove greenhouse gas emissions from the atmosphere. These projects are designed to deliver measurable climate benefits while often creating positive social and environmental impacts.

Different types of projects can generate carbon credits. Forest conservation projects protect existing forests from deforestation and degradation, preventing large amounts of carbon from being released. Reforestation and afforestation projects plant trees to absorb carbon dioxide over time.

Renewable energy projects, such as solar, hydro, and wind power, reduce reliance on fossil fuels by generating cleaner energy. Waste management projects capture methane emissions from landfills, while sustainable agriculture projects improve soil health and reduce emissions from farming practices.

In countries like Papua New Guinea, forest protection, wetland conservation, peatland management, and mangrove restoration hold strong potential due to the country’s rich natural ecosystems and biodiversity. These landscapes store large amounts of carbon and can support long-term climate solutions.

Before credits are issued, projects must undergo measurement, reporting, and independent verification to prove that real emission reductions have occurred.

Carbon projects not only help the climate—they can also support jobs, community development, conservation, and sustainable economic opportunities.

🌐 Learn more: www.sepikwpl.com

21/05/2026

📚 LESSON 54: WHY ONE CREDIT EQUALS ONE TON

Stage 2 – Carbon Credit Basics

In carbon markets, one carbon credit is equal to one metric ton of carbon dioxide (CO₂) or its equivalent greenhouse gas reduced, avoided, or removed from the atmosphere. This standardized measurement helps ensure consistency, transparency, and fairness across climate projects worldwide.

But why one ton?

A metric ton—equal to 1,000 kilograms—is used because it provides a practical and measurable unit for tracking emissions. Climate scientists, governments, and carbon standards use this common benchmark to compare environmental impacts across different sectors and countries.

For example, if a forest conservation project prevents the release of 10,000 metric tons of CO₂ from deforestation, the project may be eligible to generate 10,000 carbon credits after verification.

In places like Papua New Guinea, forests, wetlands, and peatlands store vast amounts of carbon. Protecting these ecosystems helps avoid emissions while maintaining natural carbon storage. Each verified ton of emissions avoided can potentially become one carbon credit.

Using a standard unit also allows companies and governments to calculate emissions more accurately and invest in projects that deliver measurable climate benefits.

One credit = one ton may sound simple, but it forms the foundation of global carbon markets and climate finance.

🌐 Learn more: www.sepikwpl.com

14/05/2026

📚 LESSON 53: VERIFIED EMISSION REDUCTIONS EXPLAINED

Stage 2 – Carbon Credit Basics

Verified Emission Reductions (VERs) are carbon credits issued after an independent process confirms that real greenhouse gas emissions have been reduced, avoided, or removed from the atmosphere. One VERIFIED emission reduction equals one metric ton of carbon dioxide (CO₂) or its equivalent.

The word “verified” is important. It means the climate benefits have been checked by independent third-party auditors using internationally recognized standards and methodologies. This ensures the emission reductions are real, measurable, transparent, and not exaggerated.

For example, in Papua New Guinea, protecting tropical forests from deforestation can generate verified emission reductions. If a forest area was at risk of logging but remains protected through a conservation project, the avoided emissions may be measured and verified. Once approved, carbon credits can be issued.

VERs are commonly traded in the voluntary carbon market, where companies and organizations purchase credits to compensate for emissions they cannot yet fully eliminate.

High-quality verified emission reductions also create benefits beyond carbon. They can support biodiversity conservation, improve livelihoods for local communities, strengthen land stewardship, and attract climate finance into developing regions.

Verification builds trust—without it, carbon markets cannot function effectively.

🌐 Learn more: www.sepikwpl.com

07/05/2026

📚 LESSON 52: HOW CARBON CREDITS WORK

Stage 2 – Carbon Credit Basics

Carbon credits work by turning real, measurable climate action into a tradable unit. Each credit represents one metric ton of carbon dioxide (CO₂) reduced, avoided, or removed from the atmosphere.

The process begins with a project—such as forest protection, renewable energy, or wetland restoration. In places like Papua New Guinea, projects often focus on conserving forests and peatlands to prevent emissions from deforestation.

First, a baseline is established to estimate what emissions would have occurred without the project. Then, the actual emissions are measured over time. The difference between the two is the amount of emissions reduced or avoided.

Independent third-party auditors verify this data to ensure accuracy and credibility. Once verified, carbon credits are issued and recorded in official registries.

These credits can then be purchased by companies, governments, or individuals to offset their emissions. When a credit is used, it is “retired” to ensure it cannot be used again.

This system ensures transparency, accountability, and real climate impact—linking global demand for offsets with local environmental protection and community benefits.

🌐 Learn more: www.sepikwpl.com

28/04/2026

📚 LESSON 51: WHAT IS A CARBON CREDIT?

Stage 2 – Carbon Credit Basics

A carbon credit is a standardized unit that represents the reduction, removal, or avoidance of one metric ton of carbon dioxide (CO₂) or its equivalent from the atmosphere. It is used as a tool to quantify and trade climate action in a measurable way.

Carbon credits are created by projects that actively reduce emissions or capture carbon. Examples include forest conservation, reforestation, renewable energy development, improved agricultural practices, and wetland or peatland restoration. These projects are carefully measured, monitored, and verified to ensure that the emission reductions are real and credible.

Once verified, carbon credits can be purchased by companies, governments, or individuals to offset their own emissions. This means they are compensating for emissions they cannot yet eliminate by supporting environmental projects elsewhere.

Carbon credits also play a crucial role in climate finance by channeling funding into sustainable projects, especially in developing regions where funding is often limited.

While carbon credits are important, they should complement—not replace—direct emission reductions. The ultimate goal remains reducing emissions at the source while using credits responsibly to accelerate global climate action.

🌐 Learn more: www.sepikwpl.com

21/04/2026

📚 LESSON 50: STAGE RECAP: KEY LESSONS LEARNED

Group 1: Climate & Carbon Foundations

As we complete Stage 1, we bring together the key lessons that form the foundation of climate and carbon understanding.

Climate change is driven by increased greenhouse gases from human activities such as energy use, transport, agriculture, and industry. Understanding these sources helps identify where action is needed.

Natural systems like forests, oceans, wetlands, and peatlands play a critical role as carbon sinks. Protecting these ecosystems is essential for maintaining climate balance.

Concepts such as carbon footprints, net zero, mitigation, and adaptation provide the basic framework for climate action. These ideas help individuals and organizations measure and manage their impact.

Daily lifestyle choices matter. Energy use, food consumption, travel habits, and waste management all contribute to emissions. Small, consistent actions can collectively create meaningful change.

Biodiversity, wildlife, and ecosystem services are closely linked to climate stability. Healthy ecosystems are more resilient and more effective at storing carbon.

Indigenous knowledge and conservation practices offer valuable insights into sustainable land and resource management.

This stage builds the essential knowledge needed to move forward into carbon markets, climate finance, and advanced solutions.

Kindly visit www.sepikwpl.com to continue your journey into carbon credits and climate action.

14/04/2026

📚 LESSON 49: GLOBAL YOUTH CLIMATE ACTION

Group 1: Climate & Carbon Foundations

Young people around the world are playing an increasingly important role in addressing climate change. From raising awareness to influencing policy, youth are driving momentum for a more sustainable future.

Youth movements have brought global attention to climate issues. Through education, advocacy, and community action, they are encouraging governments, businesses, and societies to take stronger climate action.

Many young leaders are involved in environmental campaigns, reforestation efforts, clean-up initiatives, and climate education programs. Their actions help build awareness and inspire change at both local and global levels.

Digital platforms have amplified youth voices. Social media allows ideas, campaigns, and movements to spread quickly, connecting young people across countries and cultures.

Education is a key driver of youth climate action. By understanding climate science and sustainability, young people are better equipped to make informed decisions and advocate for solutions.

Youth involvement also supports innovation. New ideas, technologies, and approaches often emerge from younger generations who are deeply concerned about their future.

In countries like Papua New Guinea, empowering youth in conservation and climate initiatives can strengthen long-term environmental protection and community resilience.

Supporting youth engagement is essential for achieving lasting climate solutions. Their energy, creativity, and commitment will shape the future of the planet.

Kindly visit www.sepikwpl.com to learn more about climate initiatives and sustainability efforts.

08/04/2026

📚 LESSON 48: DIGITAL CARBON FOOTPRINT

Group 1: Climate & Carbon Foundations

Our digital activities also have a carbon footprint. Every email sent, video streamed, or file stored in the cloud requires energy from data centers, networks, and personal devices.

Data centers operate 24/7 to store and process information. They consume large amounts of electricity, often powered by fossil fuels, contributing to greenhouse gas emissions.

Streaming videos, especially in high definition, uses significant data and energy. The more content streamed, the higher the energy demand across servers and networks.

Emails and cloud storage may seem small, but their impact adds up over time. Unnecessary emails, large attachments, and unused files stored online all require continuous energy to maintain.

Devices like smartphones, laptops, and tablets also contribute. Charging them frequently and replacing them often increases energy use and electronic waste.

Reducing digital carbon footprint can be simple. Limiting unnecessary streaming, deleting unused files, unsubscribing from unwanted emails, and using energy-efficient devices can make a difference.

Extending the lifespan of devices and choosing services powered by renewable energy also helps lower emissions.

As the digital world continues to grow, being aware of its environmental impact is an important part of sustainable living.

Kindly visit www.sepikwpl.com to learn more about sustainability and climate solutions.

31/03/2026

📚 LESSON 47: TRAVEL AND CLIMATE FOOTPRINT

Group 1: Climate & Carbon Foundations

Travel is an important part of modern life, but it also contributes to greenhouse gas emissions. The way we move—from daily commutes to international trips—has a direct impact on our carbon footprint.

Air travel is one of the largest contributors. Flights burn large amounts of fuel, releasing carbon dioxide at high altitudes, which increases their climate impact. Frequent flying significantly raises an individual’s emissions.

Road transport also plays a major role. Cars, especially those using fossil fuels, emit carbon dioxide and other pollutants. Traffic congestion increases fuel consumption and emissions further.

Public transportation, such as buses and trains, generally produces fewer emissions per passenger. Walking and cycling have the lowest impact and also provide health benefits.

Accommodation choices matter too. Hotels consume energy for lighting, cooling, heating, and water use. Eco-friendly accommodations can help reduce the overall environmental impact of travel.

Travel habits can be adjusted to lower emissions. Combining trips, choosing direct routes, reducing unnecessary travel, and supporting local tourism all help minimize impact.

In regions like Papua New Guinea, promoting sustainable tourism can protect natural ecosystems while supporting local communities and economies.

Being mindful of how we travel allows us to explore the world while reducing harm to the climate.

Kindly visit www.sepikwpl.com to learn more about sustainable practices and climate solutions.

Sepik Wetlands & Peatlands Limited

13/06/2026

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07/05/2026

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Monday	09:00 - 17:00
Tuesday	09:00 - 17:00
Wednesday	09:00 - 17:00
Thursday	09:00 - 17:00
Friday	09:00 - 17:00