Designing Homes and Wineries That Belong to Their Land

A perspective from Orla Studios Architects

A home or a winery should feel as though it grew out of its site. At Orla Studios, we think about the light on a hillside, the way wind moves through a valley, and the seasons that shape both a family’s year and a vineyard’s. Biophilic design gives us a framework for building from those things, and a surprising amount of research and architectural thought stands behind it.

What biophilic design means

The word biophilia, “love of life,” was first used by psychoanalyst Erich Fromm in the 1960s. Biologist Edward O. Wilson popularized it in the 1980s as the biophilia hypothesis: the idea that humans have an innate tendency to seek connection with nature and other living systems. Wilson argued that because we evolved in natural settings, our minds and bodies still respond to them.

Biophilic design applies that idea to buildings. It is not about adding a few potted plants. It is a way of shaping rooms, materials, views and landscapes so they answer a need people have always had. For us, that starts on the first site visit and continues down to the choice of a floor finish.

The ideas behind the practice

Biophilic architecture draws on several overlapping theories from psychology, environmental science, design and philosophy. No single one explains everything, but together they shape how we make decisions.

The biophilia hypothesis and Kellert’s nine values. In 1993, Wilson and social ecologist Stephen Kellert edited The Biophilia Hypothesis, which brought together scholars from many fields. Kellert went on to describe nine values through which people relate to nature, among them aesthetic, symbolic, utilitarian and ecological-scientific. Later, with Judith Heerwagen and Martin Mador, he turned the theory into a design method in Biophilic Design (2008), and in Nature by Design (2018) he refined it into three categories: direct experience of nature, indirect experience of nature, and experience of space and place.

Stress Reduction Theory. Environmental psychologist Roger Ulrich proposed that natural scenes help us recover from stress because we evolved to find certain landscapes safe and restorative. His best-known study, published in 1984, followed patients recovering from surgery. Those whose windows looked onto trees tended to have shorter hospital stays and need less pain medication than those facing a brick wall. The study was small, but it launched decades of research into healing environments.

Attention Restoration Theory. Rachel and Stephen Kaplan argued that modern life demands constant, effortful concentration, and that nature restores our focus through what they called soft fascination: gentle stimulation, such as moving leaves, water or clouds, that holds attention without draining it. They identified qualities that make a setting restorative, including a sense of being away, a feeling of extent or richness, and compatibility with what we want to do there. A reading room facing a garden, or a winery terrace over vine rows, is soft fascination put into a plan.

Prospect and Refuge Theory. Geographer Jay Appleton proposed in 1975 that we prefer places where we can see without being seen: wide views paired with a sheltered position behind us. He tied this to the survival advantage of watching for opportunity and danger from a protected spot. Related ideas, such as the savanna hypothesis, suggest we may favor open landscapes with scattered trees, though that claim is debated. Window seats, deep porches, cellar thresholds and hillside terraces all draw on this thinking.

Fractals and natural patterns. Physicist Richard Taylor has studied the fractal patterns found in trees, clouds, coastlines and foliage, in which similar shapes repeat at different scales. His work suggests that people often find moderately complex fractal patterns calming, which he links to the way our visual system evolved. Architectural theorist Nikos Salingaros has made a related argument for ornament, structure and detail that offer visual richness at many scales, from a building’s massing down to the grain of a timber beam.

Pattern language. Architect Christopher Alexander’s A Pattern Language (1977) catalogued recurring design solutions, many rooted in human comfort and nature: window places, sheltering roofs, gardens, and paths that unfold slowly. Though not labeled biophilic at the time, his patterns strongly influence today’s biophilic thinking.

Organic architecture. Long before the term biophilia reached architecture, Frank Lloyd Wright described organic architecture, the idea that a building should belong to its site and grow from it. His Fallingwater, built over a waterfall, is the classic example. Alvar Aalto and Antoni Gaudí likewise worked with natural forms and materials. The language differs from the scientific literature, but the aim is shared.

Genius loci and critical regionalism. Architectural theorist Christian Norberg-Schulz revived the Roman idea of genius loci, the spirit of a place, arguing that architecture should respond to a site’s character. Kenneth Frampton’s critical regionalism similarly urges buildings to draw on local climate, materials, topography and tradition rather than imposing a universal style. For a winery, this runs parallel to the idea of terroir: the building, like the wine, should be recognizably of its place.

Phenomenology and the senses. Finnish architect Juhani Pallasmaa, in The Eyes of the Skin (1996), criticized architecture that serves the eye alone and called for buildings that engage touch, sound, smell, temperature and the movement of the body. Biophilic design shares this concern: the cool of a stone cellar, the smell of oak, the sound of water in a courtyard and the shift of light through a day all matter as much as appearance.

Design with nature, biomimicry and regenerative design. Landscape architect Ian McHarg’s Design with Nature (1969) argued for planning that begins with a site’s ecology. Janine Benyus’s Biomimicry (1997) asked designers to learn from how organisms solve problems, such as passive cooling inspired by termite mounds. More recent regenerative design goes further, aiming for buildings that improve their surroundings rather than merely reducing harm. Frameworks like the Living Building Challenge include a dedicated biophilic requirement.

Patterns of biophilic design. In 2014, the consultancy Terrapin Bright Green published 14 Patterns of Biophilic Design, a practical translation of the research into three groups: nature in the space (plants, water, light, airflow), natural analogues (natural materials, patterns and forms), and nature of the space (prospect, refuge, mystery and risk or peril). It has become a common reference for architects and clients.

Three ways nature enters a building

Drawing on these theories, we organize our work around Kellert’s three categories.

Direct experience of nature means real contact with the natural world: daylight, fresh air, planting, water and views. In a home, that might be a courtyard garden, a kitchen that opens onto an herb bed, or windows that open to catch a breeze. In a winery, it is a terrace looking straight down the vine rows.

Indirect experience of nature uses materials and forms that echo the natural world. Local stone, timber, lime plaster and clay bring texture and warmth, and shapes inspired by ridgelines, leaves or vine rows can inform a roofline or a plan.

Experience of space and place is the subtlest. It includes prospect and refuge, the sense of arrival, the path that reveals a view slowly, and the feeling that a building belongs to its region and culture.

In the home

A house is where biophilic design is felt most often, because we live inside it every day.

  • Following the light. We study the sun’s path across the site so that morning light finds the kitchen, soft light reaches workspaces, and evening glow settles where the family gathers.
  • Bringing the garden into the plan. Rooms that wrap a courtyard or open onto a terrace make greenery part of the daily route through the house, offering the soft fascination the Kaplans described.
  • Making places to retreat. A window seat, a deep porch or a reading nook gives a view outward while feeling protected behind, in the spirit of prospect and refuge.
  • Choosing honest materials. Timber, stone and natural fibres age well and engage the senses, as Pallasmaa urged. They give a home a calm, lived-in quality that synthetic finishes rarely match.
  • Layering detail at every scale. Natural grain, varied textures and considered joinery provide the kind of visual richness that fractal research suggests we find restful.
  • Letting the house breathe. Cross-ventilation, shading and thermal mass keep rooms comfortable and reduce the need for mechanical cooling.
  • Planting for the place. Native and drought-tolerant species need little water, support pollinators and change with the seasons.

In the winery

A winery already depends on soil, sun, weather and time. Biophilic design lets the building share that logic, so a visit feels like part of the landscape instead of a stop beside it.

  • Settling into the slope. Cellars set into or sheltered by the hillside use the earth’s steady temperatures and keep the building low against the vines, much as organic architecture would advise.
  • Building from the site. Rammed earth, local stone and regional timber express genius loci and critical regionalism, tying the architecture to the vineyard’s geology while giving barrel halls natural thermal mass.
  • Framing the vineyard. Tasting rooms and terraces are placed to frame rows, ridgelines and sky, with shaded seating that draws guests outdoors and invites a slower pace.
  • Sequencing the visit. Guests might move from open fields through a threshold, down into the cool, dim cellar and back up into daylight. This uses the pattern of mystery and revelation, and echoes the journey of the wine itself.
  • Engaging every sense. The smell of oak and fermenting fruit, the sound of footsteps on stone, the temperature drop on descending to the cellar: these multisensory moments are central to a memorable visit.
  • Using light and air with care. Clerestories and shaded openings bring in soft light where it helps, while passive ventilation and stack effect cool production areas.
  • Closing the loop on water and land. Rainwater harvesting, reed-bed treatment of process water and planting between buildings reduce demand and support local ecology, in the spirit of regenerative design.

Designing for the seasons

Homes and wineries both live through a yearly cycle, and we design so that every season has something to offer. Spring brings blossom and bud break seen from kitchen windows. Summer calls for deep eaves, shaded courtyards and thick walls that hold the heat at bay. Harvest asks for working areas that are efficient and bright, with sheltered places for gathering. Winter lets low sun reach deep into rooms, with warm materials and views of bare branches and rain.

Why it matters, and what we don’t claim

Research has linked views of greenery, daylight and natural materials with lower stress, better mood and improved attention. The practical benefits are easier to point to: good daylighting reduces electric lighting, shading and natural ventilation cut cooling loads, and planted landscapes help manage stormwater. Biophilic design often overlaps with sustainable design, though the two are not the same, since a building can be energy efficient and still feel sterile.

It is also worth being candid about the limits. Much of the evidence comes from small or observational studies, some theories (the savanna hypothesis among them) remain debated, and preferences vary with culture, age and personal history. We treat these ideas as a well-informed starting point rather than a formula, and we avoid promising measurable gains in wellbeing or productivity.

Starting with the land

Every project we take on begins with the site: its slope, soil, climate, views and history. From there, we design a house or winery that makes the most of what is already there. If you are planning a home or a winery and want it to feel connected to its setting, we would be glad to hear about your land and your plans.

10 strategies for urban infill projects that integrate walkability, livability, green principles, and smart city technologies:

These focus on repurposing underused lots, parking areas, brownfields, or low-density blocks within existing cities to create dense, vibrant, sustainable neighborhoods.

1. Superblock-Style Pocket Neighborhoods

Transform clusters of 4–9 underused blocks into car-light or car-free “superblocks” by closing internal streets to through-traffic (limiting speeds to <10 km/h for access only). Reclaim space for wide pedestrian plazas, pocket parks, play areas, and cycle paths. Integrate smart sensors for real-time air quality, noise, and crowd monitoring, plus app-based booking for shared community spaces. This boosts walkability, reduces heat islands, improves biodiversity, and fosters community interaction (inspired by Barcelona).

2. Elevated Linear Parks Over Infrastructure

Build elevated or at-grade linear parks and walkways over existing highways, rail lines, or underused corridors (like New York’s High Line or Miami concepts). Incorporate native planting, bioswales, seating, and micro-mobility lanes. Add smart lighting, EV charging points, augmented reality historical overlays via apps, and solar-powered Wi-Fi kiosks. This creates safe, shaded pedestrian connections while adding green space and reducing urban heat.

3. Vertical Mixed-Use “Green Sponges”

On infill sites, develop mid-rise mixed-use buildings with stacked uses (ground-floor retail/cafes, mid-level housing/offices, upper-level green terraces). Design buildings as “green sponges” with living walls, rooftop farms, rainwater harvesting, and integrated bioswales at street level. Embed IoT for smart energy management, waste sorting, and predictive maintenance. This promotes 15-minute city access to daily needs on foot while maximizing density and greenery.

4. Adaptive Reuse with Sky Bridges and Courtyards

Convert old warehouses, factories, or parking structures into live-work-play hubs connected by climate-controlled or green sky bridges. Create internal green courtyards with communal gardens and playgrounds. Use smart city tech like occupancy sensors for dynamic lighting/HVAC and community apps for resource sharing (tools, cars, bikes). Enhances livability through social connectivity and walkable internal circulation.

5. Permeable “Green Streets” and Play Streets

Redevelop streets and lots with permeable pavements, rain gardens, tree canopies, and modular furniture that allows streets to close for play or markets on weekends. Integrate smart traffic calming (e.g., retractable bollards) and air-purifying plant installations. Apps can notify residents of events or real-time flood risk. This manages stormwater naturally, cools the area, and prioritizes pedestrians over cars.

6. 15-Minute Eco-Districts with Multimodal Hubs

Design compact infill districts where all essentials (groceries, schools, clinics, parks, work) are within a 15-minute walk. Centralize smart multimodal hubs with e-bike/scooter shares, EV pools, and real-time transit info displays. Surround with green corridors and urban orchards. Use data analytics to optimize services and reduce car dependency.

7. Biodome or Greenhouse Community Anchors

Incorporate mid-block biodomes or glasshouse structures for year-round urban farming, community events, and education. Link them via pedestrian greenways. Smart systems monitor climate, automate irrigation with harvested rainwater, and track produce distribution. This adds fresh food access, biodiversity, and iconic gathering spaces that improve livability.

8. Smart Green Corridors and Wildlife Bridges

Create interconnected green corridors along infill edges or former roads, planted with layered vegetation for cooling and habitat. Include elevated wildlife/pedestrian bridges where needed. Deploy sensors for biodiversity monitoring (cameras, sound) and citizen science apps. Combine with shaded walk/bike paths and benches with solar chargers. Reduces fragmentation and enhances ecological and human health.

9. Modular Micro-Housing with Shared Green Amenities

Use modular, flexible micro-units or co-living buildings on small infill parcels to increase housing density affordably. Pair with generous shared rooftop gardens, ground-level co-working, and tool libraries. Smart building management systems handle energy, security, and shared resource booking. This supports diverse demographics while keeping the area walkable and low-carbon. Example: Cophenhage uses stacked retired converted floating shipping containers built on the water for student housing.

10. “Under the Line” Multi-Level Activation

Activate spaces under elevated transit lines or overpasses with layered uses: ground-level markets/cafes, mid-level walkways with greenery, and upper-level solar canopies. Include interactive art, pop-up stages, and fitness zones. Integrate sensors for usage analytics and dynamic programming via digital signage. Turns dead space into vibrant, walkable destinations that boost local economy and safety.

These ideas emphasize mixed-use density, pedestrian priority, nature integration, and technology for efficiency/resilience. They draw from proven examples worldwide while allowing creative adaptation to local climate, culture, and regulations. Implementation benefits include lower emissions, better public health, economic vitality, and climate adaptation. Prioritize community input, equity (affordable housing), and phased development for success.

Orla Huq

Orla Studios Guide to Designing with Mass Timber

At Orla Studios, we see mass timber as more than a building material—it is a framework for designing sustainable, human-centered architecture. Our architectural project, the Mass Timber Winery, now under construction in Napa Valley, embodies the principles and best practices of designing with this extraordinary material. Below, we share an in-depth guide to approaching mass timber design, from concept to construction.


Understanding Mass Timber

Mass timber is an umbrella term for engineered wood products created by layering and bonding smaller wood elements into large structural components. The main types include:

  • Cross-Laminated Timber (CLT): Layers of lumber stacked at right angles and glued together to form rigid panels ideal for walls, floors, and roofs.
  • Glue-Laminated Timber (Glulam): Boards bonded lengthwise to form strong beams and columns.
  • Nail- or Dowel-Laminated Timber (NLT/DLT): Lumber fastened together without adhesives, creating panels suited for decking and floors.

Each type has specific advantages, and successful projects often combine several systems.


Principles of Designing with Mass Timber

  1. Early Integration of Structure and Architecture
    Mass timber is most successful when structural and architectural design proceed hand in hand. The size and spacing of beams, columns, and panels dictate interior proportions and aesthetics. Unlike steel or concrete, mass timber structure is often left exposed, so early design decisions directly shape the building’s character.
  2. Modularity and Prefabrication
    Mass timber panels and beams are fabricated off-site with precision CNC cutting. This allows for rapid assembly, but it requires careful planning during design. Dimensions should align with manufacturing standards, transportation limits, and crane capacities. Modular thinking reduces waste and speeds up construction.
  3. Fire Safety Design
    Despite being wood, mass timber achieves robust fire performance. Panels char at a predictable rate, forming a protective layer that insulates the structural core. Designers must account for sacrificial charring when sizing beams and panels, and coordinate closely with fire consultants and code officials.
  4. Seismic and Structural Performance
    Timber’s lightness and flexibility reduce seismic loads compared to concrete. Connections—steel plates, dowels, and screws—become critical elements of design. Careful detailing ensures both strength and ductility, particularly in taller structures or those in earthquake-prone regions.
  5. Acoustics and Vibration Control
    Mass timber’s lightness can present challenges with sound transmission and floor vibration. Solutions include layering materials (e.g., topping slabs or acoustic mats), designing for thicker panels, and integrating sound-absorbing finishes in interiors.
  6. Moisture and Durability
    Protecting timber from prolonged moisture exposure is essential. Overhangs, rainscreens, and controlled detailing at joints prevent water infiltration. During construction, weather protection measures (temporary roofs, membranes) safeguard panels before the building envelope is complete.
  7. Mechanical, Electrical, and Plumbing (MEP) Coordination
    Because panels are prefabricated, openings for ducts, conduits, and fixtures must be carefully planned and cut before delivery. Close coordination with engineers ensures services are integrated cleanly, avoiding costly on-site modifications.

Design Opportunities with Mass Timber

  • Exposed Beauty: Unlike steel or concrete, mass timber structure is celebrated visually. Beams, columns, and ceilings can remain exposed, reducing the need for finishes and creating warm, natural interiors.
  • Biophilic Design: Natural wood enhances human well-being by connecting occupants to nature, lowering stress, and improving productivity.
  • Hybrid Systems: Many projects combine mass timber with steel or concrete. For example, concrete cores may house elevators and stairs while timber spans large open areas. This hybrid approach maximizes structural efficiency.

Case Study: Our Mass Timber Winery

Our  Winery in Napa Valley demonstrates how these principles come together:

  • Open Production Spaces: Long-span glulam beams create column-free zones for winemaking, while CLT panels form insulated, breathable roof structures.
  • Hospitality and Experience: In the tasting room, exposed CLT ceilings and timber columns bring warmth and intimacy, reinforcing the winery’s connection to the vineyard landscape.
  • Sustainability in Practice: The winery leverages the carbon-sequestering qualities of timber, combined with passive cooling strategies and rainwater management systems, to minimize environmental impact.
  • Craft and Precision: Every joint and detail has been coordinated digitally before fabrication, ensuring a seamless on-site assembly and minimal waste.

Looking Ahead

Designing with mass timber requires a mindset shift—from linear construction sequencing to integrated, collaborative design. Architects, engineers, manufacturers, and builders must work as one team, with sustainability and precision at the core.

At Orla Studios, we are committed to advancing mass timber design across residential, commercial, and cultural projects. Our Winery project illustrates what is possible: architecture that is sustainable, resilient, and deeply connected to place. For us, mass timber is not just a material—it is a philosophy of building responsibly for the future.