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Lasse Leponiemi

Chairman, The HundrED Foundation
first.last@hundred.org

ABLE — Regenerative Learning Framework

Education that regenerates life

ABLE is a regenerative education framework that integrates ecological literacy, emotional development, and systems thinking through nature-based, project-driven learning. Students restore ecosystems, grow food, and design community solutions, connecting experience with responsibility. The modular model adapts to local cultures and environments.

Overview

Information on this page is provided by the innovator and has not been evaluated by HundrED.

Updated February 2026
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We hope education shifts from teaching about global challenges to engaging students in real participation within living systems. Sustainability becomes lived practice, not only content. Schools function as local learning ecosystems where students develop ecological literacy, emotional awareness, and the agency to live responsibly within planetary boundaries.

About the innovation

Why did you create this innovation?

ABLE was created in response to a growing disconnect between children and the living systems that sustain them. We observed that while environmental challenges such as climate change and biodiversity loss are increasingly discussed in schools and media, many students experience them as distant, abstract, or overwhelming. Awareness alone was not translating into agency.

At the same time, education often separates academic learning from emotional development and real-world responsibility. Sustainability is frequently taught as content rather than lived practice.

We saw the need for an educational approach that reconnects children with ecosystems, community systems, and their own capacity to contribute meaningfully. ABLE emerged as a framework where ecological literacy, emotional intelligence, and systems thinking are developed through direct, regenerative action.

The intention was not only to teach about planetary health, but to cultivate young people who experience themselves as capable participants in restoring and sustaining life within their local environments.

What does your innovation look like in practice?

In practice, ABLE operates as immersive, nature-based learning programs where students engage in real regenerative projects within their local ecosystems.

Children restore soil, grow food, care for animals, explore forests and waterways, and design small-scale community solutions connected to environmental challenges around them. These activities are structured through guided reflection, dialogue, and collaborative problem-solving.

Each learning cycle connects experience → reflection → systems understanding → responsible action. Academic concepts such as ecology, biology, economics, and ethics are integrated into hands-on projects rather than taught separately.

Educators act as facilitators within living learning environments that include farms, natural landscapes, and community partners. The framework is modular, allowing schools and communities to adapt projects to their local culture, climate, and biodiversity while maintaining the core regenerative principles.

How has it been spreading?

ABLE began as a local initiative in Thailand and has expanded through partnerships with educators, families, and community organizations seeking experiential regenerative learning models.

New projects are developing within the ABLE network in China, Portugal, Brazil, and Vietnam. These initiatives adapt the framework to local ecosystems and cultural contexts while maintaining its regenerative principles.

For example, Able Coffee integrates cultural heritage, sustainable agriculture, and business education by guiding students through the development of a real product rooted in local coffee traditions. Profits are reinvested into educational initiatives, reinforcing the model’s regenerative cycle.

Long-term initiatives such as Thriving Coral (planned for public launch in 2029) extend the framework into marine systems education and youth-led ecological design.

ABLE spreads through adaptation — enabling communities to build locally grounded regenerative projects rather than replicating a fixed program.

How have you modified or added to your innovation?

ABLE has evolved through continuous reflection and adaptation across different ecological and cultural contexts. Early programs focused primarily on immersive nature-based experiences. Over time, the framework was refined to more intentionally integrate systems thinking, emotional development, and structured reflection alongside hands-on regenerative projects.

We have expanded from short-term camps to modular project models that can be adapted by educators and communities in diverse regions. The innovation has also grown to include enterprise-based learning initiatives, such as Able Coffee, which connect ecological practice with cultural heritage and business education.

Additionally, long-term thematic tracks such as Thriving Coral are being developed to deepen engagement with marine ecosystems and youth-led ecological design.

Rather than remaining a fixed program, ABLE continues to adapt in response to participant feedback, educator collaboration, and emerging environmental realities.

If I want to try it, what should I do?

Schools, educators, and community organizations can begin by identifying a local ecological or community-based challenge that students can address through hands-on, regenerative projects. ABLE provides a modular framework that connects real-world action with structured reflection, systems thinking, and emotional development.

Interested partners can collaborate with ABLE through pilot programs, educator workshops, and project design support. The framework is adaptable to different age groups, ecosystems, and cultural contexts, allowing implementation within schools, camps, or community-based learning environments.

The starting point is simple: choose a local ecosystem, define a meaningful regenerative project, and integrate guided reflection and interdisciplinary learning around that action.

ABLE supports communities in building locally grounded learning ecosystems rather than replicating a fixed curriculum.

Implementation steps

(1) Select a Living System
Choose a real, local environment or system: a National Park, marine area, river, farm, or even a supermarket. The learning must be anchored in a place students can observe directly.
(2) Identify a Regenerative Challenge
Define one concrete issue students can improve: plastic accumulation, soil degradation, biodiversity loss, food sourcing transparency, agrochemical exposure, or waste patterns.
(3) Establish Baseline Observation
Students document current conditions: photos, species counts, plastic volume, supply-chain mapping, or product origin research. This creates measurable starting data.
(4) Define a Real Action
In a marine site, students remove and categorize plastic while tracking biodiversity.
In a supermarket project, they research food origins, examine labeling, and assess agrochemical risks.
Action must be tangible and visible.
(5) Integrate Interdisciplinary Learning
Connect science (ecology, chemistry), mathematics (measurement, statistics), economics (supply chains), and ethics (consumption responsibility) directly to the project.
(6) Facilitate Structured Reflection
After each action cycle, guide students through dialogue and journaling:
What changed?
What surprised you?
What systems are connected to this issue?
(7) Map the System
Students visualize relationships: producers, consumers, waste streams, policy, biodiversity, health impacts. This builds systems thinking.
(8) Design a Solution or Proposal
Students create restoration plans, awareness campaigns, product alternatives, or community recommendations based on their findings.
(9) Present Publicly
Students share results with park authorities, supermarket managers, families, or community members. Learning becomes civic participation.
(10) Reinvest and Iterate
Evaluate impact. Decide next steps. Expand or refine the project. The cycle continues — regeneration becomes practice, not a one-time activity.

Spread of the innovation

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