New Production Method for Sustainable Hemp Fabric & Biogas as Bioproduct
Instead of crushing plant waste with brute force, we let enzymes unzip it from within.
The Inefficiency of Bio-Mass Energy
The global transition to secure, renewable networks demands efficient, optimized biomass inputs. Standard crops and direct waste inputs remain heavily constrained by cell architecture.
The Lignin Barrier
Raw hemp stalks are heavily structured. Direct mechanical extraction leaves complex lignin and pectin wrappers around core sugars, blocking bio-digester enzymes from accessing starches.
Result: Indigestible fibrous material stalls modern digester arrays, decreasing biogas yields and burning excessive energy on grinding overheads.
The Bio-Decortication Separator
An elegant closed-loop flow transforming raw, rigid hemp stems into high-value clean-tech assets:
Enzymatic Digestion: Raw stalks enter our low-heat, aqueous bio-reactor where targeted organic catalysts consume glue-like lignin wrappers.
Fiber Separation: Clean cellulose strands slide free without aggressive tearing, yielding structural fibers optimized for premium textile weaving (*Sustainable Hemp Fabric*).
Bio-Metabolization: The remaining carbon-rich lignin wash fluid is directed to an anaerobic digestion circuit, emitting high-purity biomethane.
Why Hemp Fabric Beats the Alternatives
Hemp fabric is naturally superior, but traditional processing was too tough to scale. Our bio-decortication method removes the mechanical hurdle without introducing harsh chemical chemicals.
90% Less Water
Hemp requires almost a fraction of the heavy irrigation needed by thirsty cotton crops, preserving local groundwater tables.
Zero Pesticides
Naturally robust against pests. Cotton crops absorb roughly 16% of global insecticides; hemp fabric remains entirely pesticide-free.
No Toxic Solvents
While Bamboo fabric (viscose) relies on toxic acids to soften structural woody stems, SELECTit uses organic, benign enzymes.
Biogas Storage & Multi-Channel Utility
Methane is captured as a valuable high-purity co-product during fiber extraction. By using local compression, we make immediate revenue from clean energy assets.
Canister MVP (CHF 4.50 - 6.00)
Biogas is compressed directly into standardized outdoor canisters. Retailing at CHF 4.50-6.00 per unit, they target Swiss campsite stoves, portable burners, and heaters for rapid, self-funding cash flow.
Municipal Feed-In Scale
As processing expands, bulk compressed biomethane will be delivered directly to local energy distributors and national gas networks, fulfilling strict clean energy quotas.
Collaborative Research & Agri-Networks
Rather than operating in a clean-tech vacuum, SELECTit partners with leading agricultural and research facilities to solve real structural issues:
Arenenberg Farmers School
Swiss farmers successfully harvest high-value hemp seeds, but face a major processing roadblock with woody left-over stems. SELECTit integrates directly to help farmers handle woody stems locally.
CPUT, Cape Town
Collaborating with lecturer Isintu Mbilini inside South Africa as our key academic partner to pilot regional cultivar reactions.
Swiss Academic Labs
Co-developing advanced bioreactor setups and verifying textile tensile strength metrics.
Research Background & Objectives
Project Background
Global demand for sustainable solutions continues to grow, driven by environmental concerns, regulatory pressures, and consumer expectations. Existing products often fall short in addressing sustainability challenges such as resource efficiency, waste reduction, and long-term environmental impact. This study aims to explore ways to improve or develop a product that integrates sustainability principles into its design, production, and lifecycle.
Key Research Objectives
Product Improvement/Development: Enhance an existing product or create a new one with sustainability at its core.
Sustainability Integration: Address issues such as material selection, energy efficiency, recyclability, and reduced carbon footprint.
Research-Based Approach: Conduct systematic research to identify problems and propose solutions.
Testing & Validation: Test prototypes or concepts to evaluate performance and sustainability outcomes.
Methodology & Expected Outcomes
Structured Methodology
Background Research: Review current literature on sustainable product design. Analyse existing products and identify sustainability gaps.
Problem Identification: Define key sustainability challenges relevant to the product. Engage stakeholders (users, manufacturers, regulators) to gather insights.
Concept Development: Generate ideas for product improvement or new product design. Apply sustainability frameworks (e.g., circular economy, cradle-to-cradle).
Expected Outcomes
A clear framework for integrating sustainability into product development.
Practical recommendations for improving existing products and prototype testing results.
Contribution to academic discourse on sustainability and clean-tech agricultural innovation.
Milestones & Timeline Roadmap
Preparation Phase
H1 2026Completing literature review, problem identification, and initial concept development.
Prototype Assembly
AUGUST 2026Initiating the physical build and set up of our bench-top prototype separator.
System Integration
Q4 2026Conducting local trials, debugging biological flows, and calibrating metrics.
Academic Testing
2027 ACADEMIC YEARExecuting formal testing, evaluation, and documentation for submission.
Feasibility & Validation Scope
Scope Limit
Focused entirely on lab-scale verification (bench-top model) to test chemistry before expensive plant installations.
Technical
Enzymes and anaerobic processing mechanics are deeply grounded on established biochemistry guidelines.
Operational
Integrated leadership, risk management, business development, and lead biochem engineering capabilities are ready.
Financial Runway
Modest 15k CHF seed funding is highly optimized, keeping overhead minimal for capital-efficient proof-of-concept.
Seed Request & Advisory Pioneers
Fund Allocation
Bruce America
Bruce@selectit.chDean May
Finance & Risk LeadChloreesse
Business Dev LeadPrakash
Lead Tech EngineerBridging Seed to scaled Biorefining
15,000 CHF
Delivers chemical validation (bench-top prototype) by August 2026. Proves catalyst kinetics & eliminates biochemical execution risk.
15,000 CHF
Unlocks municipal and government grants to establish a continuous-flow bioreactor system situated directly at Arenenberg (2027-2028).
7,000,000 CHF
Full industrial build and 6-year operational runway (2029+). Achieves commercial scale-up for regional energy & sustainable fabric grids.
Strategic Edge Over Competitors
| Performance Metric | SELECTit Catalytic Approach | Pure Mechanical Separation |
|---|---|---|
| Processing Footprint | Low (Passive Organic Catalysts) | High (Heavy industrial mill overhead) |
| Biomass Digestibility | High (Pre-digested / Low-lignin) | Low (Dense raw stalks that stall digesters) |
| Target Entry Cost | ~ $0.66 / lb | $0.85 – $1.10 / lb |
| Commercial Scaled CapEx | 7,000,000 CHF (6-Yr Build + Run Plant) | > 14,000,000 CHF (Standard scaling mechanical costs) |
Fuel the Transition
Seeking strategic seed capital, biochemical co-developers, and European bio-generation pilot partners.