Before we ask how to produce more, perhaps we should ask whether we have understood the full value of what we already have.

For generations, we have built industries around a relatively simple question:

“What can we make from this resource?”

We grow a crop for a particular product. We harvest seaweed for a particular application. We process food to recover the component we want. We treat wastewater primarily to make it safe for disposal or reuse.

And once those systems have been established, we tend to keep improving them, by making them faster, bigger, more efficient. And usually, more costly…

But perhaps there is a more fundamental question we should be asking first:

“What value does this resource actually contain?”

Not what have we traditionally used it for.

Not what our existing processing infrastructure was designed to produce.

Not even what today’s market currently values most highly.

But what is in it? What could be recovered from it? And what could it become?

Only then should we ask: How should we process it? That reversal in thinking may seem subtle, but it has profound implications.

Designing the process around the resource

Too often, we approach biological resources with the processing method already decided.

The resource is made to fit the process.  What if we reversed that?

Imagine beginning with the biological resource itself and mapping its potential value: proteins, fibres, minerals, oils, pigments, nutrients, bioactive compounds, carbohydrates and other potentially useful fractions.

Then, instead of asking which of these survives our existing process, we ask:

“What processing approach would allow us to preserve and recover the fullest possible value?”

The process is designed around the resource.  Not the resource around the process.

This is the thinking behind Value Unlocking and Value Recovery.

Value Unlocking is about recognising potential that may previously have been overlooked.

Value Recovery is about designing systems capable of retaining and recovering more of that value.

Together, they ask us to look at familiar resources through an unfamiliar lens.

The same resource. A different question.

This matters because many of the resources we describe as constrained, low-value or waste may not necessarily be so.

They may simply be under-understood and under-utilised. For example:

A tonne of seaweed remains a tonne of seaweed.

A beetroot remains a beetroot.

A citrus fruit remains a citrus fruit.

Agricultural residues, spent grain and organic effluent remain physically what they were yesterday.

But their economic potential can change dramatically when we stop asking: “What do we normally do with this?”

and begin asking: “What else is here?”

That is a very different starting point for innovation.

Before producing more, recover more

This shift also challenges one of the assumptions underpinning modern industrial growth.

When demand increases, our instinct is usually to produce more.

More hectares.

More biomass.

More yield.

More extraction.

More throughput.

Sometimes that will be necessary.  But on a planet facing increasing pressure on land, water, energy and natural systems, there is another option we should investigate first: Can we derive more value from the resources we are already producing?

If we can recover more useful outputs from the same biological input, productivity begins to mean something different.  It is no longer simply yield per hectare or tonnes per hour.

It becomes: value recovered per unit of resource.

That could be one of the more important measures of productivity in the emerging bioeconomy.

Waste looks different through this lens

It also changes how we think about so-called ‘waste’.

Waste is generally treated as something that exists at the end of a process.

We then invest enormous effort trying to recycle it, repurpose it, dispose of it more responsibly or find another market for it.

Those efforts remain important.  But Value Recovery asks an earlier question:

“Why did so much value become waste in the first place?”

If useful compounds are destroyed, diluted, discarded or rendered uneconomic during processing, the opportunity to recover them may already have been lost.

So perhaps the most effective place to address waste is not always at the waste stream.

Perhaps it is at the beginning of the process.

A different lens

None of this requires us to abandon the infrastructure, industries or knowledge we already have. It does, however, ask us to interrogate them.

Science has given us an extraordinary understanding of the complexity contained within natural resources.  Technology increasingly gives us new ways of accessing that complexity.

The opportunity now is to bring those two things together.

At Green Cell Technologies, we believe this requires a shift from simply processing biological resources towards understanding, unlocking and recovering their value.

Our own technology is one expression of that thinking.

But the principle is much bigger than any single technology or company.

It is a question that can be asked of a crop, a forest, seaweed, a food manufacturing stream, wastewater or almost any biological resource: “What value is already here that we are failing to see?”

Because sometimes innovation does not require a new resource.  Sometimes it begins by looking differently at the one already in front of us.

Same resource. Different lens. Greater value.

Roy Henderson is CEO of Green Cell Technologies® (GCT®), a biotechnology company developing and licensing processing technology built around Value Unlocking and Value Recovery – identifying and recovering greater value from existing biological resources.

Get in touch to discover, unlock and recover the best value in your existing resources and systems by emailing info@greencelltechnologies.com