Physiology and management
Propagation, growth, photosynthetic performance, stress response, field behavior, and short-rotation coppice management can deepen understanding of the platform under real growing conditions.
Carbocene Industries
Plant biotechnology for productivity, carbon drawdown, durable materials, and resilient ecosystems.
Carbocene develops plant biotechnology as an integrated biological and field system—from mechanism and propagation through measurement, management, and productive use.
We build the scientific, field, and institutional capacity required for useful traits to become measurable physical outcomes. Deployment is part of biotechnology development itself.
The deployment gap
A successful biological trait can still fail before its value is tested.
Plant biotechnology can succeed technically and still fail before reaching consequential use. Biological development, propagation, field validation, regulation, financing, measurement, and commercialization operate on different timescales and often in different institutions.
Academic incentives often reward technical demonstration more readily than prolonged field development. Venture finance can be poorly matched to biological and regulatory timelines, or require one near-term commercial pathway to stand in for a technology’s wider physical value.
Carbocene builds on direct experience carrying engineered plants from laboratory development through propagation, nursery scaling, regulatory work, field trials, operational forestry, planting, and measurement.
Carbocene works in the difficult territory between proof of concept and large-scale use: developing useful biology, deploying what is ready, measuring physical and ecological outcomes, finding productive applications, and continuing development where the evidence warrants it.
Existing platform · Licensed material
Deer is a well-characterized, field-deployed photosynthesis-enhanced poplar platform.
Deer retained an enhanced growth and biomass phenotype across successive vegetative propagation cycles and subsequently entered a randomized field experiment. Separate predecessor events carrying substantially equivalent photosynthesis-enhancement constructs also produced multiseason field-growth evidence.
Productive applications
Field work can test biomass production, wood and material properties, carbon drawdown, management systems, and ecological integration.
Operational evidence
Repeated lead-event validation, nursery scaling, and a randomized Deer-inclusive field trial make this a practical platform for studying field performance, measurement, management, regulation, and engineered-tree use.
Carbocene holds a nonexclusive license covering the specifically identified Deer photosynthesis-enhanced hybrid poplar line for noncommercial research and related nonprofit use within the United States, subject to its terms.
From biological capability to physical value
Useful biology becomes legible through what it does in the world.
Greater plant productivity matters through the systems it enters: carbon uptake, biomass, forests and crops, useful materials, soils, and ecological communities. Carbocene studies these coupled outcomes rather than treating an engineered trait as the endpoint.
ePRB
Carbocene’s enhanced photorespiration bypass is a plant-productivity platform in development for woody plants, perennial systems, and selected crops.
Bamboo biotechnology
Bamboo biotechnology connects tissue culture and transformation research with high-productivity biomass, durable building materials, and biological coloration.
Loblolly development
Photosynthesis-enhanced loblolly events were created during the Living Carbon program. Carbocene is interested in resuming event selection and development if appropriate material becomes available.
Durability and biochar
Research on decomposition resistance, plant-derived materials, and biochar asks how plant growth can become durable products, stored carbon, and useful changes to soils and managed ecosystems.
Deployment is part of the experiment.
Field use exposes questions that controlled development cannot answer. Propagation, management, ecological interactions, biomass and material properties, measurement, site conditions, regulation, and long-term performance all become experimental variables once biotechnology enters real systems.
Carbocene treats those questions as part of biotechnology development rather than as downstream implementation.
Carbocene is also reconstructing the provenance of historical photosynthesis-enhanced field plantings to determine where surviving trees and records can support renewed longitudinal measurement.
Public biology in Oakland
Field practice and public science strengthen one another.
Carbocene conducts collaborative work through its Oakland greenhouse, garden, and relationships with independent biological researchers. Counter Culture Labs is a research partner in this community-facing work. Propagation, plant care, experimental growing systems, biochar, biotechnology, and ecological observation create opportunities for meaningful participation while also extending the practical environments in which biological systems can be observed and developed.
Deep Time
Biological value unfolds across more than one clock.
Plant development, forest growth, carbon accumulation, material decay, ecological succession, and evolutionary change unfold across radically different timescales. Institutions working with living systems therefore have to sustain attention and capability beyond the timelines on which financing and organizations commonly operate.
Deep Time places today’s biotechnology within the longer history of life changing the atmosphere and the conditions of life.
Interactive visual essay
Life has repeatedly remade the atmosphere.
Follow 17 pivotal events across more than four billion years through a geological timeline connected to Patrick Mellor’s Deep Time essays.
Why a nonprofit?
Some necessary stages of biological development do not finance themselves efficiently.
Field development can create public, scientific, physical, and eventual commercial value before it creates a sufficiently immediate or concentrated private return. Carbocene’s nonprofit structure lets work continue through those stages.
Commercial value, licensing, revenue, industrial partnerships, and productive land use can all support the mission. No single financing or commercialization path has to define the total possible value of the biology.
Documented research history
Carbocene begins from demonstrated biology and field experience.
The work preceding Carbocene extended from plant engineering and event selection through industrial propagation, randomized field trials, operational forest planting, measurement, and deployment. Patrick Mellor led plant-biotechnology R&D at Living Carbon from its early development through much of this work.
By 2024, the earlier program had built industrial-scale photosynthesis-enhanced hybrid-poplar production, selected a final lead event, established replicated field experiments, and advanced additional transgenic tree programs into event selection and native-poplar transformation. Carbocene carries that accumulated experience into continued biological development and new field evidence.
Science
Experimental results and independent scientific context.
Read the Science reportMIT Technology Review
Research history and intellectual origins.
Read the MIT Technology Review accountThe New York Times
Field-planting milestone.
Read The New York Times reportCurrent campaign
Capitalize the next stage of Carbocene
$50,000 supports approximately six months of scientific, operating, and field capacity. The bridge supports plant production and propagation, field work and measurement, focused scientific development, partnership building, and the operating infrastructure required to undertake larger programs.