Principles, Factors and Design Strategies
Architecture does not respond only to the climate of a city or region. Conditions can change significantly from one side of a site to another because of buildings, trees, topography, paving, water, shade, orientation and wind movement.
A shaded courtyard, a paved urban plaza, a tree-lined pedestrian path and an exposed rooftop can all experience different environmental conditions even when they are only a short distance apart.
These localized environmental conditions are known as microclimates.
For architects, understanding microclimates is important because the immediate environment around a building influences solar exposure, wind, surface temperature, outdoor thermal comfort and, indirectly, building energy performance. Contemporary research increasingly examines the relationship between urban morphology, localized climate and building performance rather than treating the regional climate as the only climatic input. Frontiers
What Is a Microclimate in Architecture?
A microclimate is the climate of a relatively small area that differs from the climatic conditions of the surrounding region.
NOAA’s National Weather Service defines a microclimate as the climate of a small area, such as a house, valley or city, that can differ from the general regional climate. forecast.weather.gov
In architecture, the term is particularly useful for describing the environmental conditions immediately around a building, courtyard, street, garden, plaza, roof, façade or site.
For example:
- A tree-shaded courtyard may be cooler than an exposed paved court.
- A narrow street between tall buildings may receive little direct solar radiation but have restricted airflow.
- A building entrance protected by a canopy may experience less solar exposure and wind.
- A roof terrace can be substantially more exposed to sun and wind than a ground-level garden.
- A water feature can alter local thermal and humidity conditions under suitable climatic circumstances.
Therefore, microclimate is not simply a smaller version of climate. It is the result of interactions between climate, landform, vegetation, water, surfaces and built form.
Macroclimate, Mesoclimate and Microclimate
Architectural climate analysis becomes easier when different spatial scales are distinguished.
| Climate scale | Typical focus | Architectural relevance |
|---|---|---|
| Macroclimate | Regional or large geographic climate | Establishes the broad climatic context |
| Mesoclimate | Local geographic or urban area | Helps understand local variations |
| Microclimate | Site, street, courtyard or immediate building environment | Directly informs architectural and landscape decisions |
| Indoor environmental conditions | Interior rooms and occupied spaces | Influences thermal comfort, air quality and building operation |
The boundaries between these categories are not absolute. Microclimate is fundamentally a scale-dependent concept.
This distinction is important because an architect may receive climate data for a city but design a building on a particular site where the actual solar exposure, wind and surface conditions differ considerably.
Why Are Microclimates Important in Architecture?
Microclimate influences architecture at several interconnected scales.
1. Thermal Comfort
Outdoor comfort depends on more than air temperature.
Solar radiation, wind, humidity and the temperature of surrounding surfaces influence how people experience an outdoor space. Mean radiant temperature can be particularly important because a person may feel uncomfortable in direct sun even when measured air temperature is relatively moderate.
For occupied indoor environments, ASHRAE Standard 55 addresses acceptable thermal environmental conditions and recognizes the relationship between thermal conditions and factors such as air temperature, humidity, air movement, clothing and activity. ASHRAE
2. Energy Performance
The conditions immediately surrounding a building influence the amount of solar radiation received by façades and roofs and the opportunities for natural ventilation.
A 2026 study examining microclimate-informed building design in Dehradun found that urban morphology altered solar exposure and wind conditions and that localized climatic conditions could influence envelope design decisions. Frontiers
3. Outdoor Space Quality
A successful plaza, courtyard, walkway or garden must be comfortable enough for people to use.
A space that is visually attractive but exposed to excessive afternoon radiation or uncomfortable wind may perform poorly as public space.
4. Landscape Performance
Trees, shrubs, ground cover and water can modify solar exposure, surface temperature, wind and evapotranspiration.
The US EPA notes that trees and vegetation cool urban environments through shade and evapotranspiration and can also reduce cooling demand when strategically positioned around buildings. US EPA
5. Urban Resilience
As heat events become a greater design concern, architects and urban designers increasingly need to consider how buildings and landscape work together to provide shade, shelter and thermally comfortable public spaces.
The UK government’s 2026 Building for a Healthy Life guidance explicitly recommends considering the microclimate between buildings and using buildings and landscape to provide shade and shelter and reduce overheating in public spaces. GOV.UK
Factors That Affect Microclimates
Microclimates are produced by the interaction of numerous environmental and architectural factors.
1. Solar Radiation
Solar radiation is one of the most important drivers of outdoor microclimate.
The amount of solar energy received by a location depends on:
- latitude
- season
- time of day
- orientation
- surface slope
- surrounding buildings
- trees
- overhangs
- canopies
- shading devices
- surface properties
Two adjacent spaces can therefore have very different thermal conditions.
A shaded courtyard and an exposed concrete plaza may have the same air temperature but provide very different thermal experiences because of their radiant environments.
2. Wind and Air Movement
Buildings modify airflow.
Depending on their form and arrangement, buildings can:
- block prevailing winds
- redirect airflow
- accelerate wind around corners
- create sheltered zones
- create turbulent zones
- form ventilation corridors
- reduce or increase pedestrian-level air movement
Urban morphology research has shown that building geometry and spacing can substantially influence local airflow. Recent studies have investigated parameters including building density, height-to-width ratio, street orientation and block configuration. Frontiers
Architectural implication
The objective is not always to maximize wind.
In a hot-humid climate, increased air movement may improve comfort.
In a cold climate, excessive wind can increase discomfort and heat loss.
The correct strategy is therefore:
Provide the right amount of air movement for the climate, season and intended use.
3. Topography
Landform can strongly influence microclimate.
Consider:
- slopes
- valleys
- depressions
- ridges
- terraces
- escarpments
- elevated sites
Topography can modify wind direction, solar exposure, drainage and local temperature patterns.
Valley floors can experience different airflow and temperature conditions from elevated slopes. Consequently, site analysis should not treat a site as a flat and climatically uniform surface.
4. Vegetation
Vegetation modifies microclimate through several mechanisms:
- shading
- evapotranspiration
- wind filtering
- surface protection
- interception of solar radiation
- modification of ground conditions
Trees can be particularly effective because their canopy can shade both people and building surfaces.
However, vegetation should not be treated as a universal cooling solution.
Its effectiveness depends on:
- species
- canopy density
- planting location
- irrigation
- season
- climate
- wind conditions
- surrounding geometry
The EPA identifies shade and evapotranspiration as major mechanisms through which vegetation reduces urban heat. US EPA
5. Water
Water can affect local environmental conditions through:
- evaporation
- thermal storage
- humidity modification
- surface temperature
- psychological perception of coolness
Water features can therefore contribute to microclimate design, particularly in appropriate dry climates.
However, water should not automatically be added to every project.
In humid climates, additional moisture may not provide the desired thermal benefit. Water availability, maintenance, health, safety and long-term sustainability must also be considered.
6. Surface Materials
Paving, roofs, walls and other surfaces absorb, store, reflect and emit heat differently.
Important properties include:
- solar reflectance
- emissivity
- thermal capacity
- thermal conductivity
- permeability
- moisture content
- surface texture
Large areas of exposed hard paving can contribute to elevated surface temperatures.
The selection of surface materials should therefore be coordinated with:
- landscape design
- drainage
- pedestrian use
- solar exposure
- thermal comfort
- maintenance requirements
7. Buildings and Urban Form
Buildings themselves are microclimatic modifiers.
Their:
- height
- width
- spacing
- orientation
- massing
- façade geometry
- setbacks
- balconies
- canopies
- courtyards
can alter solar radiation and airflow.
A 2026 study of high-density urban blocks found that urban morphology strongly affects seasonal solar irradiation, with differences in solar exposure between courtyard, setback and linear block configurations. DOI
This demonstrates why building design and urban design cannot always be separated when analysing microclimate.
Architectural Scales of Microclimate
Microclimate can be considered at several scales.
Site Scale
At the site scale, study:
- existing vegetation
- slope
- solar exposure
- wind
- surrounding buildings
- water bodies
- soil and ground surfaces
- existing shaded areas
- exposed areas
This information can influence building placement and site planning.
Building Scale
At the building scale, consider:
- orientation
- massing
- façade design
- window placement
- shading
- roof design
- thermal mass
- natural ventilation
- building envelope
Courtyard Scale
Courtyards can act as intermediate climatic spaces between indoor and outdoor environments.
Research on courtyard buildings has identified geometry, orientation, vegetation, surface materials and water as important variables affecting courtyard microclimate and outdoor thermal comfort. ScienceDirect
Street and Neighbourhood Scale
At larger scales, study:
- street width
- building height
- building spacing
- orientation
- density
- tree canopy
- open space
- paving
- building setbacks
- wind corridors
This scale is especially important in dense urban environments.
Microclimate and Urban Heat Islands
An urban heat island occurs when built-up areas become warmer than surrounding less-developed areas because of the interaction of buildings, paved surfaces, reduced vegetation, anthropogenic heat and other urban characteristics.
Microclimate design can contribute to heat-island mitigation through:
- tree planting
- shaded streets
- reflective or appropriate surface materials
- green infrastructure
- reduced unnecessary paving
- water-sensitive landscape design
- shaded public spaces
- improved urban ventilation
The EPA identifies vegetation, particularly through shade and evapotranspiration, as an important urban heat mitigation strategy. US EPA
However, urban heat mitigation should be approached as a system, not as one isolated intervention.
Microclimate and Outdoor Thermal Comfort
Outdoor thermal comfort is a more useful design objective than simply asking:
“How can the site be made cooler?”
A space can become cooler in air temperature while becoming less comfortable because of increased humidity, reduced wind or other changes in radiant conditions.
Thermal comfort assessment can involve parameters such as:
- air temperature
- relative humidity
- wind speed
- solar radiation
- mean radiant temperature
- metabolic activity
- clothing
- physiological response
Common outdoor comfort indices include:
- PET — Physiological Equivalent Temperature
- UTCI — Universal Thermal Climate Index
- SET — Standard Effective Temperature
Research on courtyards and urban spaces commonly uses thermal comfort indicators such as PET together with air temperature and wind speed to evaluate different design scenarios. MDPI
How Building Form Modifies Microclimate
Building form is one of the most powerful architectural tools for modifying the local environment.
Compact Form
Compact building configurations can:
- reduce exposed surface area
- create shade
- reduce solar exposure in some locations
- shelter outdoor spaces
But excessive compactness can also:
- restrict ventilation
- reduce daylight
- create stagnant areas
Recent research in Dehradun found that compact urban morphology reduced solar exposure but also restricted ventilation compared with more open configurations. Frontiers
Therefore:
A form that performs well for solar control may not perform equally well for ventilation.
Good microclimate design balances competing objectives.
Courtyards as Microclimatic Devices
Courtyards are among the most important architectural devices for creating controlled outdoor environments.
A courtyard can provide:
- shade
- protected outdoor space
- daylight
- ventilation opportunities
- vegetation
- water
- social space
- thermal buffering
Research indicates that courtyard geometry, orientation, openings, materials and landscape elements can significantly influence courtyard microclimate. ScienceDirect
The appropriate courtyard design is climate-specific.
For example:
- Hot-dry climates may benefit from shaded, compact courtyards and carefully controlled evaporative strategies.
- Warm-humid climates generally require greater attention to ventilation and shade.
- Cold climates may require solar access rather than maximum enclosure.
- Composite climates require seasonal adaptability.
Therefore, there is no universal “ideal courtyard ratio” applicable to every climate.
Vegetation as a Microclimate Design Tool
Vegetation should be integrated into architecture rather than treated simply as decoration.
Trees
Trees can:
- shade façades
- shade pedestrian areas
- reduce surface temperatures
- filter wind
- support evapotranspiration
- improve visual quality
Strategic placement matters.
A tree positioned between a west-facing façade and a pedestrian seating area can provide a different environmental benefit from the same tree planted far away from the building.
Shrubs
Shrubs can:
- filter wind
- define outdoor rooms
- provide lower-level shade
- reduce direct exposure
- create landscape buffers
Ground Cover
Ground cover can reduce exposed hardscape and alter surface thermal behaviour.
Green Roofs
Green roofs can influence roof surface conditions and contribute to broader environmental performance, although their actual performance depends on climate, substrate depth, vegetation, irrigation and construction.
Shading and Microclimate
Shading is one of the most direct ways of modifying solar exposure.
Architectural shading may include:
- roof overhangs
- verandahs
- arcades
- pergolas
- balconies
- fins
- louvers
- trees
- screens
- canopies
The correct shading strategy depends on solar geometry.
A shading device should therefore be designed according to:
- orientation
- latitude
- seasonal sun angle
- window position
- building use
- desired daylight
- glare requirements
The US Department of Energy’s passive solar guidance identifies overhangs and trees as methods for controlling solar exposure and illustrates how passive solar design combines solar access, control and thermal storage. The Department of Energy’s Energy.gov
Materials and Microclimate
Material selection affects microclimate because surfaces interact with solar radiation, heat storage, longwave radiation and moisture.
| Material / surface approach | Potential microclimate effect | Design consideration |
|---|---|---|
| Light-coloured reflective surface | Can reduce solar heat absorption | Consider glare |
| Dark dense paving | Can absorb and store substantial heat | Avoid excessive exposed areas |
| Vegetated surface | Provides shading and evapotranspiration | Requires suitable maintenance |
| Permeable paving | Supports water infiltration | Coordinate with drainage |
| Timber decking | Different thermal behaviour from dense masonry | Consider durability |
| Stone/concrete | High thermal mass | Useful or problematic depending on climate and exposure |
| Water surface | Can support evaporative cooling in suitable conditions | Requires water and maintenance |
Material selection should therefore be based on climate + exposure + use + maintenance, rather than colour or appearance alone.
Natural Ventilation and Microclimate
Microclimate and natural ventilation are closely related.
External wind conditions influence the pressure differences that help drive airflow through buildings.
Architectural strategies include:
- cross ventilation
- single-sided ventilation
- stack ventilation
- atriums
- courtyards
- ventilation corridors
- wind towers
- solar chimneys
The effectiveness of these strategies depends on:
- prevailing wind
- building orientation
- opening size
- opening position
- internal layout
- surrounding buildings
- temperature differences
Archi-Monarch already has a dedicated resource on natural ventilation, so this article should link to it rather than reproduce its detailed ventilation theory. Archi-Monarch
Microclimate Analysis in Architecture: A Practical Workflow
Microclimate analysis should ideally begin during site planning, not after the building form has already been fixed.
Step 1: Understand the Regional Climate
Collect:
- temperature
- humidity
- rainfall
- solar radiation
- wind
- seasonal variation
This provides the macroclimatic baseline.
Step 2: Study the Site
Map:
- contours
- vegetation
- existing structures
- roads
- water
- paving
- exposed ground
- shaded areas
- neighbouring buildings
Step 3: Study Solar Exposure
Analyse:
- morning sun
- afternoon sun
- seasonal solar angles
- façade exposure
- courtyard exposure
- roof exposure
- shading from neighbouring buildings
Step 4: Study Wind
Identify:
- prevailing wind direction
- seasonal wind changes
- wind barriers
- potential ventilation corridors
- uncomfortable wind zones
- sheltered spaces
Step 5: Analyse Surface Conditions
Record:
- paving
- vegetation
- soil
- water
- roofs
- walls
- reflective surfaces
Step 6: Map Opportunities and Problems
For example:
| Site condition | Potential problem | Design opportunity |
|---|---|---|
| Strong western sun | Afternoon overheating | Trees + façade shading |
| Excessive wind | Outdoor discomfort | Landscape windbreak |
| Dense surrounding buildings | Poor ventilation | Ventilation corridor |
| Large paved plaza | Surface heat | Trees + permeable landscape |
| Existing mature trees | Construction conflict | Preserve and integrate |
| Low-lying site | Water accumulation | Landscape drainage strategy |
Step 7: Translate Analysis into Design
Use the information to modify:
- building position
- orientation
- massing
- setbacks
- courtyards
- landscape
- shading
- materials
- openings
- outdoor spaces
Step 8: Verify the Design
For larger or complex developments, consider:
- solar analysis
- computational fluid dynamics
- microclimate simulation
- thermal comfort modelling
- wind tunnel studies
- field measurements
The City of London, for example, now provides formal microclimate guidance addressing wind, sunlight, temperature, humidity and thermal comfort in relation to development proposals. City of London
Tools for Microclimate Analysis
Depending on project scale, architects may use:
Basic Design Tools
- sun-path diagrams
- shadow studies
- wind roses
- site analysis diagrams
- climate charts
- vegetation maps
- material maps
Advanced Tools
- CFD
- ENVI-met
- Ladybug Tools
- EnergyPlus
- TRNSYS
- GIS
- thermal comfort simulation
- physical wind-tunnel testing
A tool should be selected according to the design question.
For example:
“Will this tree shade the west façade?”
A sun/shadow study may be sufficient.
“Will this high-rise development create uncomfortable pedestrian wind conditions?”
A specialist wind study may be appropriate.
“How does urban morphology affect building thermal performance?”
Coupled microclimate and building-performance modelling may be justified.
Microclimate-Responsive Design Strategies
The following framework provides a practical design checklist.
| Objective | Architectural strategy | Landscape strategy |
|---|---|---|
| Reduce solar exposure | Overhangs, louvers, arcades | Trees, pergolas |
| Improve summer comfort | Shading, ventilation | Canopy and shaded seating |
| Reduce unwanted wind | Building massing, screens | Windbreak planting |
| Encourage beneficial airflow | Porous massing, openings | Avoid blocking ventilation corridors |
| Reduce surface heating | Appropriate roof/façade materials | Vegetated surfaces |
| Support evaporative cooling | Courtyards, water features | Planting and water-sensitive landscape |
| Improve winter solar access | Solar-oriented spaces | Deciduous planting where appropriate |
| Improve outdoor comfort | Semi-open spaces | Shade + seating + vegetation |
| Manage rainfall | Roof and site drainage | Bioswales, rain gardens |
| Improve resilience | Passive environmental strategies | Green infrastructure |
Microclimate Design in Different Climates
Hot-Dry Climates
Typical priorities include:
- solar protection
- thermal mass
- controlled openings
- shaded courtyards
- night ventilation where appropriate
- carefully selected vegetation
- evaporative cooling where water availability permits
Warm-Humid Climates
Primary concerns include:
- solar shading
- air movement
- humidity
- rain protection
- breathable outdoor spaces
- cross ventilation
Large shaded verandahs and porous building arrangements can be particularly useful.
Cold Climates
Microclimate strategies may prioritize:
- solar access
- wind protection
- thermal buffering
- reduced exposure
- sheltered outdoor spaces
A design that maximizes shade in a hot climate may be counterproductive in a cold climate.
Composite Climates
Composite climates require seasonal adaptability.
The design may need to:
- provide summer shade
- permit winter solar access
- support seasonal ventilation
- manage monsoon rainfall
- provide flexible outdoor spaces
This is particularly relevant to many parts of India.
Archi-Monarch’s existing climate resources already discuss India’s broad climatic zones and should be used as supporting internal resources rather than repeated in full here. Archi-Monarch
Architectural Examples of Microclimate Design
1. Marina One — Singapore
Architect: ingenhoven architects
Landscape: Gustafson Porter + Bowman
Location: Singapore
Completed: 2017
Marina One is particularly relevant because its four high-rise buildings form a central landscaped “Green Heart.”
The project combines building geometry and landscape to create a large central environment. Project documentation describes the interaction between the geometry of the buildings and garden as supporting natural ventilation and creating an improved microclimate. ArchDaily
Architectural lesson
High-density development does not have to mean eliminating meaningful outdoor environmental space.
Building massing can be used to create a large shared climatic and social space.
2. Bullitt Center — Seattle
Architect: Miller Hull Partnership
Location: Seattle, USA
Completed: 2013
The Bullitt Center demonstrates how building systems, envelope design and natural ventilation can work together.
Its natural ventilation strategy uses motorized windows for passive cooling, supported by a high-performance envelope and radiant systems. Bullitt Center
Its water strategy also integrates rainwater capture and treatment into the building’s environmental approach. Bullitt Center
Architectural lesson
Microclimate-responsive design is strongest when architecture, landscape, water and building services are considered as an integrated system.
3. Charles Hostler Center — Beirut
The Charles Hostler Center at the American University of Beirut demonstrates the relationship between architecture, landscape and topography.
Its building volumes and courtyards were arranged to work with local environmental conditions, including sea breezes and the site’s north-facing planted hillside. ArchDaily
Architectural lesson
Topography itself can become part of environmental design.
Advantages of Microclimate-Responsive Architecture
Well-designed microclimates can contribute to:
- Better outdoor thermal comfort
- Improved indoor environmental conditions
- Reduced solar heat gain
- Better use of natural ventilation
- More usable outdoor spaces
- Improved landscape performance
- Reduced dependence on mechanical conditioning in suitable situations
- Improved resilience to heat
- Better integration between architecture and landscape
- Improved pedestrian experience
However, these benefits are design-dependent, not automatic.
Limitations and Challenges
Microclimate design also has limitations.
1. Site-Specific Conditions
A strategy successful in one location may fail in another.
2. Seasonal Conflict
Shade may be desirable in summer but undesirable in winter.
3. Water Requirements
Water features and irrigation can be inappropriate where water resources are limited.
4. Vegetation Maintenance
Trees and planting require long-term maintenance and appropriate species selection.
5. Wind Complexity
Increasing wind is not automatically beneficial. Excessive wind can create uncomfortable pedestrian conditions.
6. Simulation Uncertainty
Microclimate modelling depends on assumptions, boundary conditions, input data and validation.
The 2026 Dehradun research, for example, explicitly notes limitations associated with the availability of site-specific measurements and the assumptions used to incorporate localized conditions into building-performance simulations. Frontiers
7. Conflicting Objectives
The best solution must balance:
- shade
- daylight
- ventilation
- views
- energy
- biodiversity
- water
- accessibility
- safety
- maintenance
Common Microclimate Design Mistakes
Mistake 1: Using Regional Climate Data Alone
A city-wide weather file does not necessarily describe conditions at the building façade or pedestrian level.
Mistake 2: Treating Vegetation as Decoration
Planting should have a defined environmental role where microclimate improvement is intended.
Mistake 3: Maximizing Shade Everywhere
Some spaces need winter solar access.
Mistake 4: Maximizing Wind
More wind is not always better.
Mistake 5: Adding Water Without Climate Analysis
Evaporative cooling depends on climatic conditions and water availability.
Mistake 6: Ignoring Existing Trees
Mature vegetation may already provide valuable shade and ecological services.
Mistake 7: Designing Building and Landscape Separately
Building massing can create or destroy landscape microclimates.
Mistake 8: Using Fixed Rules Without Testing
Rules such as “always use a courtyard” or “always orient buildings in one direction” are too simplistic.
Mistake 9: Ignoring Mean Radiant Temperature
Outdoor comfort cannot be evaluated from air temperature alone.
Mistake 10: Waiting Until Detailed Design
Microclimate decisions are most powerful at the site planning and massing stages.
A Simple Microclimate Checklist for Architecture Students
Before finalizing a site plan, ask:
Sun
- Where is the strongest solar exposure?
- Which spaces require shade?
- Where is winter solar access desirable?
Wind
- What are the prevailing winds?
- Where are the sheltered areas?
- Could the proposed buildings create uncomfortable wind?
Vegetation
- Which existing trees should be retained?
- Where can new trees provide meaningful shade?
- Are planting species appropriate to the climate?
Water
- Is water available for landscape requirements?
- Can stormwater be managed naturally?
- Would a water feature provide a genuine climatic benefit?
Surface
- How much of the site is hard paving?
- Which surfaces absorb significant solar heat?
- Can permeable or vegetated surfaces be introduced?
Building Form
- Does the massing block useful airflow?
- Does it create shade where required?
- Does it provide sheltered outdoor space?
Comfort
- Will people actually want to occupy the outdoor spaces?
- How will conditions change between morning and afternoon?
- How will the space perform in different seasons?
Microclimate as a Design Opportunity
Microclimate should not be treated merely as a problem that architects have to control.
It can become a generator of architectural form.
A courtyard can emerge from the need for shade and ventilation.
A veranda can emerge from the need for transitional space.
A tree canopy can become part of the circulation system.
A porous building can create a ventilation corridor.
A sunken garden can provide shelter and a distinct environmental condition.
A shaded plaza can become a social space.
In this way, climate is not simply an external constraint placed on architecture. It can actively shape form, circulation, landscape, materiality and human experience.
Conclusion
Microclimates in architecture are localized environmental conditions created by the interaction of climate, topography, vegetation, water, materials, buildings and urban form.
For architects, the most important lesson is that a site should not be treated as climatically uniform.
The conditions at a shaded courtyard, exposed roof, tree-lined walkway and dense urban street can be significantly different even within the same project.
Effective microclimate-responsive architecture therefore begins with observation and analysis. Architects should study solar exposure, wind, topography, vegetation, surfaces and surrounding buildings before translating that information into decisions about orientation, massing, courtyards, shading, landscape, materials, ventilation and outdoor space.
The strongest approach is not to maximize one environmental factor but to balance solar access, shade, wind, vegetation, water, thermal comfort and seasonal performance.
Microclimate analysis therefore connects site planning, architecture, landscape architecture and building performance into one integrated design process.