Chapter 6

Getting It on Paper: From Concept to Reality

_Learn how to translate your design into construction documents and contracts that protect your vision and ensure builders deliver._ You've spent months refining your regenerative design with your architect, imagining solar panels feeding excess power to neighbours, rainwater systems nurturing productive gardens, and spaces that adapt as your family evolves. Now your architect mentions "moving into the documentation phase" and starts discussing contract types. Suddenly, the creative energy shifts to talk of liabilities, warranties, and risk allocation. You wonder: How do these technical documents relate to your vision of a building that heals rather than harms? This is where many regenerative projects stumble. Not because the vision wasn't strong or the design wasn't brilliant, but because the translation from design to documentation diluted the regenerative intent. The documentation phase isn't just about technical drawings; it's about encoding your values into a language that builders, councils, and contractors can understand and deliver. ![Documentation](/images/guides/journey/illustrations/used/conclusion-new-chapter2.webp) ## Documentation as storytelling for builders Your construction documentation needs to communicate far more than dimensions and materials. In Victoria's current construction crisis, with thousands of building companies collapsing, your documentation becomes the bridge between your regenerative vision and the people who'll physically create it. According to ASIC data, 3,217 construction firms collapsed or entered administration nationally in 2024, a 26% rise from the previous year, highlighting the immense pressure on the industry. Think of documentation as translation work. Your architect translates your spatial dreams into technical drawings that tell builders exactly where each wall goes, how thick the insulation needs to be to achieve your seven-star energy rating, and why that particular window placement captures winter sun while blocking summer heat. But regenerative documentation goes further; it explains _why_ you're using cross-laminated timber that sequesters carbon, how the greywater system connects to garden irrigation, and what maintenance will keep these systems functioning for generations. The best regenerative documentation reads like an instruction manual for creating a living system. When Breathe Architecture documented Melbourne's The Commons, they didn't just specify "rooftop solar panels." They detailed how the photovoltaic array would contribute to the building's shared energy system, powering common facilities and reducing the building's overall energy footprint. The documentation explained the vision, that this building would be a sustainable and affordable community, not just the technical specifications. ## The art of performance specification ![Documentation Process](/images/guides/journey/illustrations/used/06-bads-process.webp) _Creating comprehensive construction documents that protect regenerative goals_ Traditional documentation often locks in specific products: "Supply and install Colorbond Custom Orb profile sheeting in Woodland Grey." But what happens when that product becomes unavailable, or you discover a local manufacturer producing something better? Regenerative documentation uses performance specifications that describe what you need the element to _achieve_, not just what product to use. Instead of specifying a particular rainwater tank brand, you might specify: "Provide rainwater storage system with minimum 10,000L capacity, configured for both potable supply with appropriate filtration and garden irrigation, with first-flush diverter and mosquito-proof overflow capable of handling 1-in-100 year storm events based on current climate projections plus 20% intensity increase allowance." This tells your builder what problem you're solving, water self-sufficiency with climate resilience, while allowing flexibility in how they solve it. Performance specifications particularly matter for innovative materials. Rather than specifying a particular hempcrete supplier (still limited in Victoria), you'd specify the performance requirements: thermal resistance of R2.5, moisture buffering capacity, carbon-negative lifecycle assessment, and compliance with fire ratings for your BAL zone. This approach lets your builder find solutions that meet your regenerative goals even as new products enter the market. ![Visual Communication](/images/guides/journey/illustrations/used/06-geotechnical-layers3.webp) ## Visual communication beyond standard drawings Standard architectural drawings evolved for conventional buildings where everyone understands that a toilet symbol means a standard flush system connected to a sewer. But how do you draw a composting toilet system that transforms waste into garden nutrients? How do you show the seasonal operation of windows that change from winter heat collectors to summer ventilation drivers? Regenerative projects often require additional drawings that explain systems thinking. A water cycle diagram might show rain flowing from roof to tank to house to greywater treatment to garden infiltration and eventually back to the atmosphere, the complete cycle your building participates in rather than the typical "in from mains, out to sewer" linear flow. These systems diagrams help builders understand not just what to build but _why_ each connection matters. Seasonal operation diagrams prove particularly valuable. One drawing might show your house in summer mode: external blinds down, clerestory windows open for night purging, ceiling fans circulating air, and thermal mass releasing night-time coolth. Another shows winter mode: blinds up, windows sealed, sun penetrating deep into rooms, and thermal mass absorbing heat. These drawings help builders understand how seemingly simple elements create complex passive systems. ## The ABIC suite and regenerative modifications Victoria's construction industry largely operates using the Australian Building Industry Contract (ABIC) suite, jointly published by the Australian Institute of Architects and Master Builders Australia. Your architect will likely recommend an ABIC contract suitable for your project's scale, such as Major Works (MW) for projects over $3 million or Simple Works (SW) for smaller projects. Each has its place, but none were written with regenerative building in mind. The standard contracts assume conventional construction where success means matching drawings and specifications. They don't account for regenerative goals like achieving net-positive energy, maintaining living roofs, or ensuring materials can safely return to biological cycles. You'll need modifications, special conditions that encode your regenerative requirements into contractual obligations. ### Warranties and performance guarantees Standard building warranties cover defects for six years in Victoria for structural issues and two years for non-structural ones. But what about the performance of your solar system, your rainwater harvesting, or your passive cooling strategies? Regenerative buildings often require extended performance guarantees that go beyond standard defects liability. You might include special conditions requiring the builder to warrant that passive cooling systems will maintain internal temperatures below 26°C for 95% of summer hours without mechanical cooling. Or that the rainwater system will provide 90% of household water needs based on average rainfall patterns. These performance guarantees shift focus from just building correctly to building something that _actually works_ as intended. However, be careful about making these warranties too onerous. In the current market with record builder insolvencies, adding excessive risk might price your project out of reach. The key is balancing meaningful performance requirements with realistic risk allocation. Your architect should help navigate this balance, perhaps suggesting staged verification where systems are tested and optimised before final warranties apply. ![Critical Specs](/images/guides/journey/illustrations/used/02-planning-system4.webp) ## Critical specification decisions for regenerative buildings Every material and system choice either supports or undermines your regenerative goals. The specification phase transforms your performance requirements into actual products and installation methods. This is where many regenerative projects get diluted, not through malice but through thousands of small decisions defaulting to conventional approaches. ### Material specifications that consider full lifecycles When specifying timber, you're not just choosing between pine and hardwood. You're deciding whether to lock carbon into your building's structure for decades. Sustainably managed Victorian Ash stores a significant amount of carbon, with about half the dry weight of wood being carbon. However, if you specify imported materials thinking they are more sustainable, you might actually increase embodied energy through shipping while supporting unclear forestry practices. Consider insulation choices: standard glasswool insulation might achieve your R-values, but polyester insulation made from recycled bottles keeps plastic from landfill while providing similar performance. Sheep's wool insulation goes further, naturally regulating moisture while sequestering carbon, though at a higher cost. Your specifications need to balance performance, cost, and regenerative benefits while ensuring local availability. Paint seems like a minor decision until you calculate surface areas. Conventional paints release volatile organic compounds (VOCs) for years, affecting indoor air quality. Natural paints using lime, clay, or plant-based binders can actually improve indoor environments. Your specification might require paints with less than 1g/L VOCs and third-party certification for ingredients, pushing past greenwashing to genuine health benefits. ## Protecting regenerative intent through contract administration ![Specification Clarity](/images/guides/journey/illustrations/used/06-heritage-impact.webp) _Ensuring regenerative intent survives the construction process_ You've signed the building contract, and construction is starting. This is when your documentation gets tested. Will your builder understand why that concrete mix includes supplementary materials to reduce embodied carbon? Will subcontractors appreciate why certain trees must be protected? Contract administration, your architect's role during construction, becomes critical for maintaining regenerative intent. Under the ABIC contracts, your architect can serve as the contract administrator, making binding decisions about variations, approving payments, and assessing completion. For regenerative projects where maintaining design intent is crucial, this provides more control. However, your architect typically visits the site periodically, perhaps fortnightly, not daily. For complex systems, consider enhanced architect involvement during critical phases, such as when your thermal mass slab is poured or when windows are installed for passive solar gain. Every variation should be assessed against your regenerative criteria. If windows need substitution due to availability, the replacement must maintain thermal performance, appropriate solar heat gain coefficients, and natural ventilation strategies. This isn't just about matching U-values; it's about understanding how that window contributes to your building's passive systems. --- ![Monitoring](/images/guides/journey/illustrations/used/04-performance-monitoring5.webp) ## Documentation as Regenerative Legacy Your construction documentation is more than instructions for building; it's the encoded DNA of your regenerative vision. In Victoria's challenging construction environment, with record builder insolvencies and rising complexity from seven-star energy requirements, this clarity becomes crucial for project success. These documents bridge the gap between your aspirations for a building that heals and the practical reality of a construction site. Contract selection shapes project relationships. The ABIC suite provides a tested framework, but you'll need special conditions addressing performance guarantees beyond standard defects liability. Balance meaningful requirements against market reality; excessive risk allocation might deter good builders, a crucial consideration when so many companies are under financial pressure. Performance specifications create flexibility while protecting outcomes. Rather than locking in specific products that might become unavailable, specify what elements must achieve. This approach proves especially valuable for innovative materials where supply chains can be immature. System integration also requires explicit documentation to ensure tradespeople understand how their work fits into the bigger picture. Most importantly, your documentation creates a legacy beyond construction. Future occupants maintaining and adapting your building over decades need to understand not just what was built but _why_. When your grandchildren consider renovations in 2075, will they understand why that thermal mass wall matters? The effort invested in comprehensive documentation pays dividends through smoother construction, better performance outcomes, and decades of optimised operation. ## Chapter Resources [**Acumen Practice Notes - ABIC Contracts →**](https://acumen.architecture.com.au/project/building-contracts/abic-contracts/) _Comprehensive resource from the Australian Institute of Architects providing detailed guidance on construction contracts, including the ABIC suite. Helps you understand standard procedures and terminology your architect will use, with downloadable reference contracts and supporting documentation._

This guide is for educational purposes only. While we strive for accuracy, regulations and requirements may change. Please verify all information with official sources before making professional decisions.