The water cycle is one of the planet’s oldest and most important life-support systems. Healthy ecosystems continuously move water through soil, plants, rivers, groundwater, and the atmosphere in a dynamic cycle that helps regulate temperature, support biodiversity, build soil, and stabilize climate.

For millions of years, landscapes functioned like giant living sponges. Rainfall was slowed, absorbed into healthy soils, filtered through underground systems, taken up by plants, and gradually released back into the atmosphere through evapotranspiration. This process naturally cooled the planet. As plants release water vapour into the air, heat energy is transferred and dispersed, much like perspiration cools the human body. Water vapour also helps form clouds, influence rainfall patterns, and maintain regional climate stability.

Over time, many human systems have disrupted this cycle. Deforestation, soil degradation, pavement, industrial agriculture, wetland destruction, and channelized waterways have dramatically reduced the land’s ability to absorb and hold water. Instead of soaking into the ground, rainfall now moves rapidly across hard or depleted surfaces, contributing to flooding, erosion, drought, wildfire conditions, and rising temperatures.

Much of the climate conversation has focused primarily on carbon emissions, which are absolutely important. However, water cycle degradation is increasingly being recognized as a major missing piece of climate remediation. Carbon and water systems are deeply interconnected. Healthy water cycles help cool landscapes, support carbon sequestration in soils and vegetation, increase ecological resilience, and stabilize weather patterns.

Water cycle restoration works to repair these living systems by helping landscapes function more like they did naturally. Practically, this can include:

• shaping land to slow, spread, and sink rainfall into the ground

• rebuilding living soil that can absorb and retain water

• planting deep-rooted vegetation and perennial systems

• restoring wetlands, forests, and ecological edges

• reducing runoff and erosion

• increasing organic matter and biodiversity

• designing landscapes that keep water moving through living systems instead of losing it downstream

At Wild Child Regeneration, water cycle restoration acts as a foundational lens through nearly all of our work. Whether designing for a backyard garden, food forest, agricultural growing, community space, or larger ecological system, the goal is not simply to “use less water,” but to help restore the natural relationships between water, soil, plants, atmosphere, and people.

Healthy water cycles create cooler, more resilient, and more life-supporting landscapes for all species that depend on them.

Healthy soil is far more than dirt. It is a living ecosystem made up of minerals, organic matter, fungi, bacteria, microorganisms, insects, worms, air, water, and plant roots, all interacting together in complex relationships.

In healthy ecosystems, soil acts as a biological engine. It stores water, cycles nutrients, supports plant growth, filters pollutants, captures carbon from the atmosphere, and provides habitat for countless living organisms. A single teaspoon of healthy soil can contain billions of microorganisms working together to support life above ground.

Modern land practices often degrade soil through excessive tilling, synthetic chemicals, compaction, erosion, monocultures, and the removal of organic matter. Over time, damaged soil loses its structure, biodiversity, water retention capacity, and ability to support resilient ecosystems. This contributes to flooding, drought stress, crop vulnerability, biodiversity decline, and climate instability.

Regenerative land practices focus on rebuilding soil as a living system rather than treating it as an inert growing medium. This can include:

• minimizing soil disturbance

• keeping soil covered with mulch or living plants

• increasing biodiversity

• incorporating compost and organic matter

• planting perennial systems and native species

• reducing synthetic inputs

• supporting fungal and microbial life

• improving water infiltration and retention

Healthy soil behaves like a sponge, capable of holding large amounts of water while remaining aerated and biologically active. This improves plant health, reduces runoff, increases resilience during drought, and supports long-term ecological function.

At Wild Child Regeneration, soil health is viewed as one of the core indicators of ecosystem health. When soil begins to heal, many other systems begin healing alongside it.

Regenerative agriculture is an approach to growing food that works to rebuild and strengthen ecosystems rather than deplete them. It focuses on improving soil health, restoring water cycles, increasing biodiversity, supporting ecosystem function, ensuring financial viability, and creating long-term resilience for both the land and the people stewarding it.

Unlike many conventional agricultural systems that rely heavily on tillage, synthetic inputs, monocultures, and extraction, regenerative agriculture aims to work more closely with natural systems and ecological relationships. The goal is not simply to sustain what currently exists, but to actively improve the health and function of the land over time.

This can look different from farm to farm, climate to climate, and region to region, but common regenerative practices often include:

• Reducing or eliminating tillage

• Keeping living roots in the soil as much as possible

• Increasing crop diversity and polycultures

• Integrating livestock thoughtfully

• Using cover crops

• Building soil organic matter

• Improving water infiltration and retention

• Planting windbreaks, hedgerows, or perennial systems

• Reducing synthetic chemical dependency

• Designing farms that function more like ecosystems

Healthy regenerative systems often produce multiple benefits at once: healthier soils, improved drought resilience, reduced erosion, increased pollinator habitat, stronger local food systems, improved water retention, and carbon storage within living soils.

Farmers are some of the most important land stewards on Earth. They feed communities, manage enormous portions of the landscape, and are often working within difficult economic and environmental pressures. Many regenerative practices are rooted in both traditional knowledge and innovations already being pioneered by farmers themselves.

In many ways, farmers are the stars of the story. Large-scale ecological restoration simply cannot happen without agriculture playing a central role.

Regenerative agriculture is also deeply connected to climate change remediation. Healthy living soils store carbon, absorb and retain more water, reduce flooding and drought vulnerability, and support more resilient ecosystems overall. Because agriculture occupies such a vast percentage of global land, even relatively small shifts in farming practices can have massive ecological impacts.

One excellent resource for learning more is the Investing in Regenerative Agriculture Podcast by Koen van Seijen, which explores soil health, plant health, ecosystem function, financial viability, and regenerative farming practices in depth:

Investing in Regenerative Agriculture Podcast

Healthy soil is alive. Beneath our feet lies an incredibly complex underground ecosystem composed of fungi, bacteria, insects, roots, minerals, water, air, and countless microscopic organisms, all working together to support life above ground.

When soil biology is healthy, landscapes become more resilient, productive, water-retentive, and self-sustaining. Much of regenerative land stewardship focuses on protecting and rebuilding these underground relationships.

Mycorrhizal Fungi

Mycorrhizal fungi form vast underground networks that connect plant roots together. Often referred to as the “wood wide web,” these fungi help plants access water and nutrients, particularly phosphorus and minerals, in exchange for sugars produced through photosynthesis. These fungal relationships strengthen plant health, improve drought tolerance, and help build healthy soil structure.

Minerals

Minerals are the foundational building blocks plants rely on for growth, immunity, and biological function. Healthy soils contain a broad spectrum of minerals that become accessible through biological activity. When soils are depleted, plants become weaker and ecosystems less resilient.

Organic Matter

Organic matter includes decomposing leaves, roots, wood, compost, and living or dead biological material. It acts like a sponge within the soil, helping retain water, feed microorganisms, store carbon, and improve soil structure over time.

Bacteria

Bacteria are microscopic organisms that help break down organic material and cycle nutrients into plant-available forms. Different bacterial communities perform different ecological jobs, including nitrogen cycling and decomposition. Healthy bacterial diversity is essential to fertile living soil.

Microorganisms

Microorganisms include countless tiny life forms beyond bacteria and fungi, many of which are still not fully understood by science. Together, they regulate nutrient cycling, decomposition, disease suppression, and overall ecosystem function.

Insects

Soil insects help shred organic material, aerate the soil, cycle nutrients, and create habitat pathways underground. Many species play important ecological roles in decomposition and food web support.

Worms

Earthworms are natural soil engineers. Their movement aerates soil, improves drainage, mixes organic matter into deeper layers, and creates nutrient-rich castings that support plant growth and microbial activity.

Air

Healthy soil needs oxygen. Tiny air pockets within the soil allow roots and microorganisms to breathe and function properly. Compacted soils often become biologically inactive because these air spaces disappear.

Water

Water activates biological life within the soil and acts as the transportation system for nutrients and minerals. Healthy soils absorb and retain water gradually, reducing runoff while supporting long-term ecosystem resilience.

Plant Roots

Roots are not passive structures. Plants actively exchange nutrients and chemical signals with underground organisms through their root systems. Living roots feed soil biology through sugars released into the soil, helping sustain the entire underground ecosystem.

Together, all of these relationships create living soil systems capable of supporting healthier plants, cleaner water, stronger ecosystems, and more climate-resilient landscapes.

Two-Eyed Seeing, or Etuaptmumk, is a guiding principle introduced by Mi’kmaq Elder Albert Marshall that encourages us to learn to see from one eye with the strengths of Indigenous knowledge systems, and from the other with the strengths of Western scientific approaches, while using both together for the benefit of all.

At Wild Child Regeneration, much of our work is informed by this way of thinking.

Our approach draws from both traditional ecological knowledge and western ecological science to better understand how living systems function and how humans can participate more responsibly within them. This includes learning from Indigenous land stewardship teachings, training with Anishinaabe Elders and knowledge keepers in Ontario, studies within Indigenous environmental practices at the University of Guelph, and ongoing ecological research surrounding soil health, water cycles, biodiversity, climate systems, and regenerative agriculture.

Traditional ecological knowledge often emphasizes long-term relationship, deep observation, reciprocity, interconnection, seasonal awareness, and stewardship rooted in place. Western scientific approaches can offer additional tools for measurement, modelling, data analysis, hydrology, ecosystem science, and landscape planning.

Rather than viewing these knowledge systems as opposing forces, Two-Eyed Seeing recognizes that both perspectives hold valuable insight. When woven together thoughtfully and respectfully, they can deepen our understanding of ecosystems and strengthen our ability to respond to climate change, biodiversity loss, water degradation, and ecological imbalance.

At its core, Two-Eyed Seeing is not simply about combining information. It is about approaching land with humility, curiosity, relationship, and a willingness to keep learning from both ancient and emerging ways of understanding the living world.

A monoculture is the practice of growing only one species across a large area. Think of endless fields of corn, soy, or turf grass. While monocultures can simplify harvesting and large-scale production, they often create fragile ecosystems that are more vulnerable to pests, disease, erosion, nutrient depletion, drought, and ecosystem collapse. When one species dominates a landscape, biodiversity declines, and the system loses many of the natural relationships that help ecosystems regulate themselves.

A polyculture, on the other hand, is the practice of growing many species together in mutually supportive relationships, much like nature does naturally. Forests, meadows, wetlands, and healthy ecosystems are all examples of polycultures. Different plants occupy different niches, exchange nutrients, attract beneficial insects, support soil biology, regulate moisture, and create balance within the system.

At Wild Child Regeneration, we design with polycultures because resilient ecosystems are rarely built on sameness. By combining species intentionally, landscapes become more adaptive, biodiverse, productive, beautiful, and ecologically functional over time. This can look like layering trees, shrubs, herbs, flowers, groundcovers, and food-producing plants together in ways that support both people and local ecosystems.

Polycultures also reduce long-term maintenance needs by allowing natural relationships to do much of the work. Healthy diversity helps regulate pests, improve soil health, retain water, support pollinators, and strengthen ecosystem resilience naturally.

Edges are the places where two ecosystems meet, like forest and meadow, pond and shoreline, or garden and hedgerow. These transition zones are often some of the most productive and biodiverse spaces in nature because they support a wider range of species, relationships, shelter opportunities, food sources, and ecological interactions.

Many living creatures naturally gather and thrive at edges, where multiple ecosystems overlap and resources become more abundant. In regenerative design, creating and strengthening edges can help increase biodiversity, resilience, productivity, and overall ecosystem health across a landscape.

A bioregion is a geographic area defined by natural systems rather than political borders. These regions are shaped by shared climate patterns, watersheds, soil types, ecology, geology, native species, and seasonal rhythms.

Bioregionalism is the philosophy and movement centered around living in deeper relationship with the unique ecological realities of the place you inhabit. Rather than designing systems based on generic models or imported expectations, bioregional thinking asks: What naturally belongs here? What does this landscape need? How do we live more in harmony with the ecosystems that sustain us?

A bioregional approach influences everything from agriculture and architecture to food systems, water management, energy use, restoration work, and community resilience. It encourages localized knowledge, regional materials, seasonal eating, watershed awareness, and ecological stewardship rooted in place.

For example, a regenerative strategy that works beautifully in a dry grassland ecosystem may not make sense in a humid forested watershed. Different regions require different relationships, methods, species, and solutions.

At Wild Child Regeneration, understanding the bioregion is foundational to our work. We look at native ecologies, rainfall patterns, water movement, biodiversity, soil conditions, and historical ecosystem function to guide how landscapes can be restored and stewarded in ways that are both resilient and regionally appropriate.

Bioregionalism is ultimately about remembering that humans are part of ecosystems, not separate from them.

Even small properties can contain many different microclimates. A microclimate is a localized area where conditions such as temperature, moisture, sunlight, wind exposure, or humidity differ from the surrounding landscape.

A south-facing stone wall may create a warm pocket suitable for heat-loving plants. A shaded low area may stay cooler and retain moisture longer into summer. Areas near forests, ponds, buildings, slopes, fences, or exposed open ground can all behave differently from one another.

Learning to read these subtle differences is an important part of regenerative design. Rather than forcing a landscape into uniformity, we work with the conditions that already exist naturally on the land.

At Wild Child Regeneration, we observe how water moves, where frost settles, how sunlight shifts seasonally, where wind exposure changes, and which species naturally thrive in different zones. These observations help guide plant placement, ecosystem design, water management strategies, and long-term resilience.

When plants and systems are matched to the microclimates where they naturally prosper, landscapes become healthier, more productive, more resilient, and often far lower maintenance. In many cases, the land itself tells us what wants to grow where.

A watershed is an area of land where all water drains toward the same creek, river, lake, wetland, or ocean system. No matter where rain falls within that watershed, it eventually moves toward a shared body of water through streams, groundwater, soil, and surface flow.

Watersheds connect entire landscapes together. What happens uphill directly impacts what happens downhill. This means forestry practices, agriculture, urban development, soil health, erosion, pollution, and water retention are all interconnected parts of the same living system.

Healthy watersheds slow, sink, filter, cool, and store water naturally through vegetation, living soils, wetlands, forests, and functioning ecosystems. Damaged watersheds often experience increased flooding, drought, erosion, poor water quality, and ecosystem collapse because water moves too quickly across the land instead of soaking into it.

Much of regenerative land stewardship is really watershed restoration work. Whether through reforestation, improving soil biology, restoring wetlands, planting perennial systems, or sculpting land to slow and infiltrate water, the goal is to help landscapes function more like healthy sponges again.

Understanding your watershed changes how you see the land. It reminds us that no site exists in isolation. We are all connected through water.

Rewilding is a progressive approach to conservation. It's about letting nature take care of itself, enabling natural processes to shape land and sea, repair damaged ecosystems, and restore degraded landscapes. Through rewilding, wildlife's natural rhythms create wilder, more biodiverse habitats.

In our work, we incorporate native species and natural systems to mimic the rewilding efforts happening across the world.

Click here to learn more about rewilding.

Native species are plants, trees, grasses, and flowers that evolved naturally within a particular region over thousands of years. During that time, they adapted alongside local soils, watersheds, wildlife, climate conditions, pollinators, fungi, and even human relationships with the land. They are deeply woven into the ecological fabric of place.

Because native species evolved within these ecosystems, they play critical roles in supporting biodiversity and ecosystem function. Many birds, pollinators, insects, and wildlife species rely specifically on native plants for food, shelter, nesting material, and reproduction. In fact, many insects can only survive on certain native host plants they co-evolved with over long periods of time.

Native plants also tend to be incredibly resilient within their home environments. Their deep root systems often help improve soil structure, increase water infiltration, reduce erosion, and make landscapes more tolerant to drought and flooding. Once established, many native species require less watering, fertilizing, mowing, and long-term maintenance than conventional ornamental landscapes.

Beyond their ecological benefits, native plantings help reconnect people to the natural identity and beauty of the places they live. They strengthen local ecosystems while restoring a sense of relationship with the land itself.

Some of the many benefits of native species include:

• Supporting pollinators, birds, and wildlife

• Strengthening biodiversity and ecosystem resilience

• Improving soil health and soil biology

• Increasing water absorption and reducing runoff

• Supporting healthier local water cycles

• Reducing long-term maintenance needs

• Increasing drought tolerance

• Reducing fertilizer and irrigation dependency

• Helping store carbon within living soils and vegetation

• Restoring regional ecological identity and habitat

But wait… does non-native automatically mean invasive?

No. There is an important difference between non-native and invasive species.

A non-native plant is simply a species that did not originally evolve in a particular region. Many common garden plants and food crops fall into this category, including hydrangeas, tulips, peonies, salvias, boxwoods, and many vegetables and herbs.

An invasive species, however, is a non-native species that spreads aggressively and causes ecological harm by outcompeting native ecosystems and disrupting natural relationships.

At Wild Child Regeneration, we do not believe every non-native plant is inherently “bad.” In fact, many non-native species can coexist peacefully within designed landscapes and food systems. However, we prioritize native species wherever possible because they provide the strongest ecological support for local ecosystems and biodiversity.

Our approach is about balance and intentionality. A landscape rooted primarily in native ecology, with carefully chosen non-native species integrated thoughtfully where appropriate, can still be beautiful, productive, biodiverse, and regenerative.

A closed-loop is a cyclic process where wastes or renewable sources are reintegrated as resources in a dynamic system. Elements in a system are viewed in relationship to other elements, where the outputs of one element become the inputs of another.

Everything is recycled, waste is eliminated by design and transformed into resources, processes are clear and energy-saving, defined for little maintenance.

A classic example of this is composting kitchen scraps. The finished product from this process gets applied as fertilizer to food crops, which then produce food that we eat, which then creates more organic materials for your compost systems, and the cycle continues round and round.

Read more about closed-loop systems here.

Perennials are plants that return year after year without needing to be replanted. Unlike annuals, which complete their life cycle in a single season, perennials continue building stronger root systems, healthier soil relationships, and more resilient ecosystems over time.

We love perennials because they work more like natural ecosystems do.

Most landscapes on Earth are perennial-dominant for a reason. Forests, meadows, wetlands, and prairies are built on long-living plants with deep root systems that hold soil, cycle nutrients, support biodiversity, retain water, and create stability within the ecosystem. When we design regenerative landscapes, we aim to learn from these natural patterns rather than constantly fighting against them.

Perennials also bring huge practical benefits.

Because they remain in the ground year-round, they disturb the soil far less than annual crops. This helps protect delicate soil biology like fungal networks, microorganisms, insects, and beneficial bacteria that are easily disrupted through repeated digging and tilling.

Their roots also tend to grow much deeper than annual plants, allowing them to:

• access deeper water and nutrients

• improve soil structure

• increase water infiltration and retention

• stabilize slopes and reduce erosion

• better withstand drought and temperature swings

In colder climates like Canada, perennial plants are especially powerful. They begin growing early in spring when moisture is abundant and temperatures are still cool, allowing them to make efficient use of the short growing season.

They also generally require:

• less watering

• less fertilizer

• less disturbance

• less labour over time

That doesn’t mean annuals are “bad.” Many important food crops are annuals (we would also like to formally thank tomatoes for their service). But our approach is often to create perennial-dominant systems that mimic natural ecology while intentionally incorporating annuals where they make sense.

In short: healthier soil, stronger ecosystems, less maintenance, more resilience, and food systems that improve over time? That’s our kind of plant.

It’s a buzz term these days among the green thumbs, and for good reason!

A food forest, also called a forest garden, is the harmonious integration of the landscape with people providing their food, energy, shelter and other material and non-material needs in a sustainable (regenerative!) way. It’s a diverse planting of edible plants that attempts to mimic the ecosystems and patterns found in nature. Food forests are three-dimensional designs, with life extending in all directions – up, down, and out.

We can convert several acres - or even small backyards - into food forests! No matter the size, you can use the food forest layers to build your space into a lush and beautiful space.

There are generally seven layers of a forest garden: the overstory (tall trees), the understory (smaller trees), the shrub layer, the herbaceous layer, the root layer, the ground cover layer, and the vine layer. Some also like to recognize mycelial (fungi) as the eighth layer. Using these layers, we can fit plants much more densely in an area without causing failure due to competition. Like you see in the wild!

A food forest does not have to be re-planted year after year. Once it is established, it is generally very resilient. You can also choose to intersperse annual plants if desired.

This is an entire topic that we could talk for hours about, but to learn more about this awesomely cool approach to growing food, check out some of the links below!

Click here to read more about what Food Forests are.

Click here to see how someone transformed their backyard into a food forest.

Click here to see Geoff Lawton talk about food forests.

Healthy soil is one of the planet’s most important carbon sinks. Through photosynthesis, plants pull carbon dioxide (CO₂) from the atmosphere and move it into the soil through roots, organic matter, and biological activity underground.

In healthy ecosystems, soil stores this carbon for long periods of time while supporting water retention, biodiversity, plant health, and overall ecosystem resilience. But when soil is heavily disturbed through excessive tilling, deforestation, monocultures, or chemical-intensive land practices, much of that stored carbon is released back into the atmosphere, contributing to climate change.

In nature, soil is rarely left bare. Healthy landscapes protect soil with living plants, roots, leaf litter, and organic matter. Regenerative practices like no-dig growing, cover cropping, perennial planting, composting, and maintaining continuous soil cover help rebuild soil health while increasing the land’s ability to store carbon naturally.

Carbon-rich soils also absorb and retain more water, reduce erosion and flooding, improve drought resilience, and support healthier ecosystems overall.

At Wild Child Regeneration, soil carbon sequestration is viewed as part of a larger living systems approach, where healthy soil, healthy water cycles, biodiversity, and climate resilience are all deeply connected.

Permaculture is an ecological design framework rooted in observing how healthy natural systems function and applying those patterns to the way we grow food, steward land, build communities, and meet human needs. The word itself combines “permanent” and “agriculture,” though permaculture today extends far beyond food production alone.

At its core, permaculture asks a simple but powerful question:

How can humans meet our needs while improving the health of the ecosystems we depend on?

Permaculture emphasizes working with nature rather than against it. It encourages thoughtful observation, biodiversity, water stewardship, soil regeneration, interconnected systems, and long-term resilience. Well-designed systems often become more productive, self-sustaining, and ecologically beneficial over time.

At the heart of permaculture are three foundational ethics:

• Care for the Earth

• Care for People

• Fair Share (returning surplus back into the system)

Permaculture is not a rigid set of rules, nor is it a gardening style. It is a way of thinking that can be applied to landscapes, agriculture, homes, businesses, water systems, food systems, community planning, and everyday life.

Permaculture is also deeply connected to Indigenous knowledge systems from around the world. Although the term “permaculture” was coined by Bill Mollison and later expanded alongside David Holmgren, Mollison openly acknowledged the Indigenous peoples whose land-based knowledge informed the framework. His work was developed in partnership with Indigenous Tasmanians and through observing traditional ecological systems practiced across many cultures globally.

Permaculture helped translate many ancient land stewardship principles into a modern ecological design language that could be more widely shared and applied. Its emphasis on observation, reciprocity, biodiversity, water cycles, long-term thinking, and working with natural systems reflects knowledge that Indigenous communities have carried for generations.

For a snapshot of what permaculture stands for, here are the 12 principles it is based on:

• Observe and Interact

• Catch and Store Energy

• Obtain a Yield

• Apply Self-Regulation and Accept Feedback

• Use and Value Renewable Resources

• Produce No Waste

• Design from Patterns to Details

• Integrate Rather Than Segregate

• Use Small and Slow Solutions

• Use and Value Diversity

• Use Edges and Value the Marginal

• Creatively Use and Respond to Change

At Wild Child Regeneration, permaculture acts as one of several foundational lenses through which we understand ecosystems, water cycles, soil health, biodiversity, and regenerative land stewardship. It offers practical tools for designing landscapes that are not only productive and beautiful, but deeply resilient and ecologically connected over time.

Click here to read more about Permaculture.

Companion planting is the practice of planting two or more types of plants close together for some kind of benefit, such as the control of pests, increased health and vigour, resistance to disease, or higher yields. They can even help to improve crop flavour. These are termed ‘good companions’.

An example of good companions (friends!) to cabbage are:

• Onions: naturally repel pests that love cabbage family plants.

• Sage and rosemary: especially effective for deterring cabbage moths.

• Chamomile: enhances cabbage’s flavour with sulphur, potassium, and calcium.

Conversely, companion planting is also concerned with plants that are detrimental to each other and must therefore be grown in separate parts of the garden. These are termed “bad companions”.

Examples of bad companions (foes!) to cabbage are:

• Lettuce: root secretions from members of the cabbage family can prevent lettuce seeds from germinating

• Strawberries & Tomatoes: cabbage (and brassicas, generally) impair the growth of these plants

All plants have friends and foes, and we keep this in mind when planning your garden so that we can leverage natural relationships to make your green space thrive.

See here for a PDF chart of optimal companion plants.

“No-dig” or “no-till” gardening methods are based on minimizing disturbance to the soil whenever possible. Rather than repeatedly turning or tilling the earth, these approaches aim to build soil health from the top down by adding organic matter, mulch, compost, and plant material directly onto the surface.

Why does this matter?

Healthy soil is alive. Beneath the surface exists an entire ecosystem made up of fungi, microorganisms, insects, worms, air pockets, water pathways, minerals, and plant roots all working together. Excessive digging and tilling can disrupt these relationships, damage soil structure, dry out the ground, increase erosion, and release stored carbon back into the atmosphere.

By keeping the soil covered and relatively undisturbed, no-dig systems can help:

• improve soil biology and structure

• increase water retention and rainfall absorption

• reduce erosion and nutrient runoff

• support carbon sequestration

• suppress weeds naturally over time

• create healthier, more resilient growing systems

One common no-dig technique is called sheet mulching, which involves layering organic “green” and “brown” materials to mimic the way soil naturally builds in forests and meadows.

“Brown” materials might include:

• leaves

• cardboard

• straw

• wood chips

• shredded paper

“Green” materials might include:

• compost

• grass clippings

• manure

• food scraps

• coffee grounds

Over time, these materials break down into rich, living soil.

It’s important to note that tillage is sometimes necessary depending on the site, scale, soil conditions, or agricultural context. This isn’t about rigid rules or perfection. It’s about understanding how soil functions as a living system and reducing disturbance where it makes sense to do so.

In many cases, less digging can lead to healthier soil, stronger ecosystems, and surprisingly productive gardens with less maintenance over time.

Interplanting, or intercropping, is a way of mixing different plants within your garden space that either mature at different times, need different space requirements or have different nutrient needs. This allows you to break up monocultures, diversify crops, maximize vertical space, reduce pests, and overall - enable you to grow 2-3 times more crops! It also means that you can make the most of your growing season by planting at intervals and harvesting continually.

This is, of course, related to our earlier point around Companion Planting, where we plant according to beneficial relationships.

We use these two principles together to create diverse, thriving, and beautiful gardens.

Read more about interplanting here.

Hügelkultur (loosely pronounced “Hoo-gul-culture”) is German for “hill culture.” It’s a no-dig garden bed technique whereby large amounts of wood are buried in a garden bed mound. Flora is planted on top of the mound, and whatever is left over after harvesting eventually composts itself into the soil as well.

The mounds can be between 2-7ft off the ground, and are a great way of maximizing growing area as you’re making use of vertical space. People have great success growing fruit, vegetables, and herbs with excellent yields.

A Hügelkultur bed is also a great way to follow the permaculture principle of catching and storing energy. The decaying wood acts like a sponge to hold onto water that seeps into the ground, providing much better water retention for your plants. They also act as a consistent source of long-term nutrients for the plants, helping to ensure their natural resiliency.

Plus - it looks cool and makes accessing your vegetation much simpler.

Check out this article to learn more.

Ecological succession is the orderly and predictable process by which an ecological community progressively transforms itself to ultimately create a stable system. This process is initiated whenever new space is made available for nature to work upon.

As land stewards, given the environmental degradation that has transpired, it’s part of our role to accelerate the natural ecological succession process by mimicking natural systems in our green spaces. This is largely done by:

• Using what is already growing, usually a weed layer, to build soil fertility.

• Planting all vegetational layers at the same time (ground cover, vines, shrubs, trees, etc) to expedite the normal growth flow.

• Introducing plants that will easily survive in the particular environment and which will help to bring up soil fertility.

• Raising organic levels by using mulch, green manure crops, compost and other natural fertilizers to change the soil environment.

• Substituting our own herb, pioneer, and climax species in these spaces

When you regenerate spaces with ecological succession in mind, you are working with nature’s natural path, instead of against it, to ensure that the spaces will thrive for generations to come.

Read more about ecological succession here.

Why regeneration? Because all sustainable solutions are unsustainable over the longer term, if they are not also intrinsically regenerative. The spaces we work on are specifically designed to live on long after our lifetime.

Regenerative farming or 'regenerative agriculture’ calls for the creation of demand on agricultural systems to produce food in a way that is beneficial to the production and the ecology of the environment. It uses the science of systems ecology, and the design and application through permaculture.

The degree of technological innovation by humans is remarkable but has also advanced to the point at which the industrialized lifestyle it has engendered is fretting the basic elements we depend for our existence at the most fundamental level, in particular, soil, water and air.

Improved conditions from regenerative permaculture might include the creation of habitat (including building soil), water purification, and the enhancement of nitrogen- and carbon-fixing processes in the soil.

Click here to read more about regenerative permaculture.