10 Principles of Future-Proofing Historic Buildings


Figure 1: In 1982, unintended use of grout with too much gypsum caused the terra-cotta walrus heads to crack and deteriorate rapidly at the Arctic Building in Seattle WA. Credit; Brian Rich, 2013


Normally, prudent architectural design, building science, building analysis software, and best practices are enough to ensure that an intervention (renovation, rehabilitation, etc.) in an historic building does not damage the structure and reduce its service life.  Future-proofing is the process of anticipating the future and developing methods of minimizing the effects of shocks and stresses of future events.  Future-proofing is used in other industries such as electronics, medical industry, industrial design, and, more recently, in design for climate change.  The principles of future-proofing are extracted from other industries and codified as a system for approaching an intervention in an historic building.


Figure 5: Rotted wood due to improperly installed membrane or siding. Credit: http://www.moldknowledge.com/dry%20rot%20photo%206.JPG

At a school in Eastern Washington, the glazed terra cotta pops off in small chunks the size of a half dollar coin.  In another structure in Western Washington, a concrete wall is installed inside of the existing brick and cast stone façade for seismic structural reinforcement.  In a newly renovated structure in the Mid-West, the insulated exterior walls of a brick masonry building aren’t delivering the anticipated thermal performance and costing the owners significant money to continue operating.  Why does this happen?  Is the renovation of old buildings damaging them rather than preserving them?  It is instructive to introduce the concept of “future-proofing” and how it can be applied to the built environment.


How, then, does one respond to the rehabilitation of an existing structure, such as the school in the example above, where the long term viability of the existing building fabric is put at risk and deteriorates more rapidly after the sustainable renovation?  One would hope that the expertise of the architect and their design team would be able to anticipate the needs of a building such that its rehabilitation actually extends, rather than shortens, its service life.  Normally the realm of prudent design would cover this, but it seems that the immediate needs of the client too often come first and that the existing building structures come later.

Figure 1:  Spalled stone due to rust jacking at a railing.  Credit:  Brian Rich, 2013

Figure 1: Spalled stone due to rust jacking at a railing. Credit: Brian Rich, 2013


The technical understanding of how a building works and what an architect must do to make sure it works properly is known under many different terms.  Building science, building technology, and good practice design often describe this work.  Good design also includes a detailed understanding of materials science, building pathology, design and detailing, construction techniques and sequencing, amongst other skills.  Often times, there is so much to handle that even with a team of experts, one cannot understand all of the aspects of building design that must come together to make a successful project.  Indeed it is often existing buildings that, while they are available to be studied in the full reality of their construction, are the most baffling and difficult to understand because of the complexity of the interactions between all of the building components, the climactic conditions, and the occupants.

In addition to the common issues of completing a project design, the recent trend towards inclusion of sustainable design features in projects has become required for architects to compete in the marketplace.  This market has been created by rating systems in the 1970s and 1980s which give the building more value in the market when they are design and built to higher levels of sustainability.  The emphasis in the sustainable rating systems started with a focus around building systems (mechanical and electrical, primarily).  The initial solutions to increase sustainability were incomplete solutions that improved the performance of these systems.  Sustainable design rating systems have grown to include water systems, siting, building materials, and other aspects of the built environment, but continue to give our existing building stock only minor attention.

Figure 1:  Environmental impacts of buildings on the environment.  (Western Village)

Figure 1: Environmental impacts of buildings on the environment. (Western Village)

The existing building stock is one of the most valuable assets that the human race has created – and the most damaging to the environment.  The “annual replacement rate of buildings (the percent of the total building stock newly constructed or majorly renovated each year) has historically been about 2%.” (Easton, 2013)  During slow economic periods, this replacement rate can be even slower.  Buildings account for 73% of electricity consumption in the U.S. and 38% of CO2 emissions. (Energy Information Administration, 2013; US Department of Energy, 2012)

It has been long argued that rehabilitation of an existing building is one of the most sustainable strategies for a project to employ.  This research is closely linked to sustainable design strategies by reducing material consumption, loss of embodied energy, and reduction of construction waste, reduction in energy consumption, and reduction in CO2 emissions.  The ultimate goal of this research is to promote the rehabilitation and adaptive re-use of our existing building stock and extend their useful service lives rather than contributing to the consumption of our planet’s resources.

This research is further linked to the concept of life cycle analysis.  While it is beneficial to the environment when one designs a building that reduces its energy consumption by 50% of an accepted standard, the reality of this achievement is significantly different when a full life cycle analysis is considered.  As a simple example, consider the difference between the scenario of renovating an existing building versus tearing down the existing building and constructing a new one of the same size but with more efficient building systems and a life expectancy of 20 to 30 years.  This sounds great until one considers that the existing building as a masonry structure with a reinforced concrete frame that with a little work could last for another 100+ years.  One would have to build at least 3 new structures to take the place of the existing structure for the same period of time.  Further, the payback period for a new building can be as little as 7 to 8 years, depending on the scope of the project, the nature of the existing building, strategies employed, and the basis for measurement. (Katz, 2011)   his payback period grows to 60 to 80 years when one accounts for the embodied energy of the existing structure that was demolished. (Frey et al., 2011)  Given this simple life cycle comparison, it is evident that rehabilitation of existing structures is much better for the environment than even the most efficient new construction.

Figure 2:  Years Of Carbon Equivalency For Existing Building Reuse Versus New Construction. (Frey)

Figure 2: Years Of Carbon Equivalency For Existing Building Reuse Versus New Construction. (Frey)

In addition to the consideration of the value of existing structures through life cycle analysis, the issues become more complex when working with a structure that is protected by formal historic designation.  Historic landmark designation at the local, city, county, state or national levels is possible for almost all older structures provided they meet certain minimum criteria.  When considering such a designated building in the United States, most often, the Secretary of the Interior’s Standards for the Treatment of Historic Properties come into play.  Consideration of the Standards for Rehabilitation makes clear that designated historic building fabric shall be protected.  Standard 5 states that “distinctive features, finishes, and construction techniques or examples of craftsmanship that characterize a property shall be preserved.”  Standard 9 is also instructive:  “New additions, exterior alterations, or related new construction shall not destroy historic materials that characterize a property.” (Weeks, 1995)  Thus, the design of an intervention in a designated historic structure that causes damage to the structure is not in accordance with the Secretary’s Standards.


There are several industries using the term “future-proofing” today outside of the Architecture, Engineering, and Construction (AEC) industry.  In general, the term refers to the ability of something to continue to be of value into the distant future; that the item does not become obsolete.

Figure XX:  The Brooklyn Bridge - a future-proof structure that has stood up to centuries of traffic and expansions.  Credit:  Brian Rich, 2013

Figure XX: The Brooklyn Bridge – a future-proof structure that has stood up to centuries of traffic and expansions. Credit: Brian Rich, 2013

The concept of future-proofing is the process of anticipating the future and developing methods of minimizing the effects of shocks and stresses of future events.  This term is commonly found in the electronics, data storage, and communications systems.  It is also found in Industrial Design, computers, software, health care/medical, and product design.

Study of the principles behind “future-proofing” both within the AEC industry and among outside industries can give vital information about the basis of future-proofing.  This information can be distilled into several principles which describe the concept of future-proofing.  The principles can be applied to the design of interventions in historic buildings that will not cause further deterioration of the building. In combination with careful analysis with computational analysis software, the principles of future-proofing can help to prevent the problems with buildings mentioned in the introduction.


In future-proof electrical systems buildings should have “flexible distribution systems to allow communication technologies to expand.”(Coley, Kershaw and Eames, 2012)  Image related processing software should be flexible, adaptable, and programmable to be able to work with several different potential media in the future as well as to handle increasing file sizes.  Image related processing software should also be scalable and embeddable – in other words, the use or place where the software is employed is variable and the software needs to accommodate the variable environment.  Higher processing integration is required to support future computational requirements in image processing as well. (Barreneche, 1995)

In wireless phone networks, future-proofing of the network hardware and software systems deployed become critical because they are so costly to deploy that it is not economically viable to replace each system when changes in the network operations occur.  Telecommunications system designers focus heavily on the ability of a system to be reused and to be flexible in order to continue competing in the marketplace. (Thomas et al., 2003)

Figure 2:  Brick spalling due to  mortar installed that was harder than the brick.  Credit:  Brian Rich, 2013

Figure 2: Brick spalling due to mortar installed that was harder than the brick. Credit: Brian Rich, 2013

In 1998, teleradiology (the ability to send radiology images such as x-rays and CAT scans over the internet to a reviewing radiologist) was in its infancy.  Doctors developed their own systems, aware that technology would change over time.  They consciously included future-proof as one of the characteristics that their investment would need to have.  To these doctors, future-proof meant open modular architecture and interoperability so that as technology advanced it would be possible to update the hardware and software modules within the system without disrupting the remaining modules.  This draws out two characteristics of future-proofing that are important to the built environment:  interoperability and the ability to be adapted to future technologies as they were developed. (Roberson and Shieh, 1998)


In industrial design, future-proofing designs seek to prevent obsolescence by analyzing the decrease in desirability of products.  Desirability is measured in categories such as function, appearance, and emotional value.  The products with more functional design, better appearance, and which accumulate emotional value faster tend to be retained longer and are considered future-proof.  Industrial design ultimately strives to encourage people to buy less by creating objects with higher levels of desirability.  Some of the characteristics of future-proof products that come out of this study include a timeless nature, high durability, aesthetic appearances that capture and hold the interest of buyers.  Ideally, as an object ages, its desirability is maintained or increases with increased emotional attachment.  Products that fit into society’s current paradigm of progress, while simultaneously making progress, also tend to have increased desirability. (Kerr, 2011)  Industrial design teaches that future-proof products are timeless, have high durability, and develop ongoing aesthetic and emotional attraction.

Figure 10:  Several industries use the term “future-proof” to describe aspects of their practice.  The practice of architecture also has several ways of supporting future-proof design.  (Brian Rich, 2013)

Figure 10: Several industries use the term “future-proof” to describe aspects of their practice. The practice of architecture also has several ways of supporting future-proof design. (Brian Rich, 2013)


In one region of New Zealand, Hawke’s Bay, a study was conducted to determine what would be required to future-proof the regional economy with specific reference to the water system.  The study specifically sought to understand the existing and potential water demand in the region as well as how this potential demand might change with climate change and more intense land use.  This information was used to develop demand estimates that would inform the improvements to the regional water system.  Future-proofing thus includes forward planning for future development and increased demands on resources.  However, the study focuses on future demands almost exclusively and does not address other components of future-proofing such as contingency plans to handle disastrous damage to the system or durability of the materials in the system. (Bloomer and Page, 2012)


The term “future-proofing” in relation to sustainable design began to be used in 2007.  It has been used more often in sustainable design in relation to energy conservation to minimize the effects of future global temperature rise and/or rising energy costs.  By far, the most common use of the term “future-proofing” is found in relation to sustainable design and energy conservation in particular.  In this context, the term is usually referring to the ability of a structure to withstand impacts from future shortages in energy and resources, increasing world population, and environmental issues, by reducing the amount of energy consumption in the building.  Understanding the use of “future-proofing” in this field assists in development of the concept of future-proofing as applied to existing structures.

In the realm of sustainable environmental issues, future-proof is used generally to describe the ability of a design to resist the impact of potential climate change due to global warming.  Two characteristics describe this impact.  First, “dependency on fossil fuels will be more or less completely eliminated and replaced by renewable energy sources.”  Second, “Society, infrastructure and the economy will be well adapted to the residual impacts of climate change.” (Godfrey, Agarwal and Dias, 2010)

In the design of low energy consuming dwellings, “buildings of the future should be sustainable, low-energy and able to accommodate social, technological, economic and regulatory changes, thus maximizing life cycle value.”   The goal is to “reduce the likelihood of a prematurely obsolete building design.” (Georgiadou, Hacking and Guthrie, 2012)

Figure 4:  Mold caused by too much water vapor trapped within a building.  Credit:  http://media.kmvt.com/images/MOLD1.jpg_BIM.jpg

Figure 4: Mold caused by too much water vapor trapped within a building. Credit: http://media.kmvt.com/images/MOLD1.jpg_BIM.jpg

In Australia, research commissioned by the Health Infrastructure New South Wales explored “practical, cost-effective, design-related strategies for “future-proofing” the buildings of a major Australian health department.”  This study concluded that “a focus on a whole life-cycle approach to the design and operation of health facilities clearly would have benefits.”  By designing in flexibility and adaptability of structures (see Figure 4), one may “defer the obsolescence and consequent need for demolition and replacement of many health facilities, thereby reducing overall demand for building materials and energy.” (Carthey et al., 2011)

The ability of a building’s structural system to accommodate projected climate changes and whether “non-structural [behavioral] adaptations might have a great enough effect to offset any errors from… …an erroneous choice of climate change projection.”  The essence of the discussion is whether adjustments in the occupant’s behavior can future-proof the building against errors in judgment in estimates of the impacts of global climate change.  There are clearly many factors involved and the paper does not go into them in exhaustive detail. However it is clear that “soft adaptations” such as changes in behavior (such as turning lights off, opening windows for cooling) can have a significant impact on the ability of a building to continue to function as the environment around it changes.  Thus adaptability is an important criteria in the concept of future-proofing” buildings.  Adaptability is a theme that begins to come through in many of the other studies on future-proofing.  (Coley, Kershaw and Eames, 2012)

There are examples of sustainable technologies that can be used in existing buildings to take “advantage of up-to-date technologies in the enhancement of the energetic performance of buildings.”  The intent is to understand how to follow the new European Energy Standards to attain the best in energy savings.  The subject speaks to historic buildings and specifically of façade renewal, focusing on energy conservation.  These technologies include “improvement of thermal and acoustic performance, solar shadings, passive solar energy systems, and active solar energy systems.”  The main value of this study to future-proofing is not the specific technologies, but rather the concept of working with an existing façade by overlapping it rather than modifying the existing one.  The employment of ventilated facades, double skin glass facades, and solar shadings take advantage of the thermal mass of existing buildings commonly found in Italy.  These techniques not only work with thermal mass walls, but also protect damaged and deteriorating historic facades to varying degrees.  (Brunoro, 2008)

Figure XX:  The Arctic Building in Seattle, WA.  The 1982 walrus tusk repairs were not future-proof:  accelerated deterioration of the walrus heads ensued.  Credit;  Brian Rich, 2013

Figure XX: The Arctic Building in Seattle, WA. The 1982 walrus tusk repairs were not future-proof: accelerated deterioration of the walrus heads ensued. Credit; Brian Rich, 2013


Use of the term “future-proofing” has been uncommon in the AEC industry, especially with relation to historic buildings until recently.  In 1997, the MAFF laboratories at York, England were described in an article as “future-proof” by being flexible enough to adapt to developing rather than static scientific research.  The standard building envelope and MEP services provided could be tailored for each type of research to be performed. (Lawson, 1997)  In 2009, “future-proof” was used in reference to “megatrends” that were driving education of planners in Australia. (Meng, 2009)  A similar term, “fatigue proofing,” was used in 2007 to describe steel cover plates in bridge construction that would not fail due to fatigue cracking. (Albrecht and Lenwari, 2007)  In 2012, a New Zealand based organization outlined 8 principles of future-proof buildings:  smart energy use, increased health and safety, increased life cycle duration, increased quality of materials and installation, increased security, increased sound control for noise pollution, adaptable spatial design, and reduced carbon footprint. (CMS, 2012)

Another approach to future-proofing suggests that only in more extensive refurbishments to a building should future-proofing be considered.  Even then, the proposed time horizon for future-proofing events is 15 to 25 years.  The explanation for this particular time horizon for future-proof improvements is unclear. (Shah, 2012)  This author believes that time horizons for future-proofing are much more dependent on the potential service life of the structure, the nature of the intervention, and several other factors.  The result is that time horizons for future-proof interventions could vary from 15 years (rapidly changing technology interventions) to hundreds of years (major structural interventions).

In the valuation of real estate, there are three traditional forms of obsolescence which affect property values:  physical, functional, and aesthetic.  Physical obsolescence occurs when the physical material of the property deteriorates to the point where it needs to be replaced or renovated.  Functional obsolescence occurs when the property is no longer capable of serving the intended use or function.  Aesthetic obsolescence occurs when fashions change, when something is no longer in style.  A potential fourth form has emerged as well:  sustainable obsolescence.  Sustainable obsolescence proposes to be a combination of the above forms in many ways.  Sustainable obsolescence occurs when a property no longer meets one or more sustainable design goals. (Reed and Warren-Myers, 2012)  Obsolescence is an important characteristic of future-proofing a property because it emphasizes the need for the property to continue to be viable.  Though not explicitly stated, the shocks and stresses to a property in the future are one potential way in which a property may become not future-proof.  It is also important to note that each form of obsolescence can be either curable or incurable.  The separation of curable and incurable obsolescence is ill defined because the amount of effort one is willing to put into correcting it varies depending on several factors:  people, time, budget, availability, etc.

However, the most informative realm for historic buildings within the AEC industry is the concept of resiliency.  A new buzzword among preservationists and sustainable designers, resiliency has several clearly identified principles.  In its common usage, “resilience” describes the ability to recoil or spring back into shape after bending, stretching, or being compressed.  In ecology, the term “resilience” the capacity of an ecosystem to tolerate disturbance without collapsing into a qualitatively different state. (Applegath et al., 2010)  The principles of a resilient built environment include:

  • Local materials, parts and labor
  • Low energy input
  • High capacity for future flexibility and adaptability of use
  • High durability and redundancy of building systems
  • Environmentally responsive design
  • Sensitivity and responsiveness to changes in constituent parts and environment
  • High level of diversity in component systems and features

One reasonable approach to future-proof sustainable cities is an integrated multi-disciplinary combination of mitigation and adaptation to raise the level of resilience of the city.  In the context of urban environments, resilience is less dependent on an exact understanding of the future than on tolerance of uncertainty and broad programs to absorb the stresses that this environment might face.  The scale of the context is important in this view:  events are viewed as regional stresses rather than local.  The intent for a resilient urban environment is to keep many options open, emphasize diversity in the environment, and perform long range planning that accounts for external systemic shocks. (Thornbush, Golubchikov and Bouzarovski, 2013)  Options and diversity are strategies similar to ecological resilience discussed above.  This approach again points out the importance of flexibility, adaptability, and diversity to future-proofing urban environments.

Figure 6:  The future-proof restoration of a cast iron facade building in the Garment District of New York, NY.  This renovation restored the building’s capacity to bring light to the lowest levels of the basement through glazed sidewalk vault panels (top left) and has helped to ensure the ongoing use and occupancy of the building.  (Brian Rich, 2013)

Figure 6: The future-proof restoration of a cast iron facade building in the Garment District of New York, NY. This renovation restored the building’s capacity to bring light to the lowest levels of the basement through glazed sidewalk vault panels (top left) and has helped to ensure the ongoing use and occupancy of the building. (Brian Rich, 2013)


The design of interventions in existing buildings which are not detrimental to the future of the building may be called “future-proofing.”  Future-proofing includes the careful consideration of how “sustainable” alterations to historic structures affect the original historic material of the structure.  This effect is significant for long service life structures in order to prevent them from deteriorating and being demolished.  This effect is especially significant in designated structures where the intent is to do no harm to the historic fabric of the structure.

Historic buildings are particularly good candidates for future-proofing because they have already survived for 50 to 100 years or more.  Given their performance to date and appropriate interventions, historic building structures are likely to be able to last for centuries.  This durability is evident in the buildings of Europe and Asia which have survived centuries and millennia.  Extension of the service life of our existing building stock through sensitive interventions reduces energy consumption, decreases material waste, retains embodied energy, and promotes a long term relationship with our built environment that is critical to the future survival of the human species on this planet.

Future-proofing of designated historic structures adds a level of complexity to the concepts of future-proofing in other industries as described above.  All interventions on historic structures must comply with the Secretary’s Standards for the Treatment of Historic Properties.  The degree of compliance and the Standard selected may vary depending on jurisdiction, type of intervention, significance of the structure, and the nature of the intended interventions.  The underlying principle is that no harm is done to the structure in the course of the intervention which would damage the structure or make it unavailable to future generations.  In addition, it is important that the historic portions of the structure be able to be understood and comprehended apart from the newer interventions. (Weeks, 1995)

Based on the sources reviewed above, there are several principles that can be extracted for application to historic buildings.  Future-proofing of historic structures means:
Comply with the Secretary’s Standards.  The Secretary of the Interior’s Standards for the Treatment of Historic Places provide excellent guidance for the long term retention of an historic building.

  1. Not promote deterioration – do no harm.  It is natural for all building materials to deteriorate.  Interventions in historic structures should not accelerate the deterioration of the existing building fabric.
  2. Allow understanding of the historic structure.  Interventions in historic structures should allow the students of history in our future to understand and appreciate the original historic building as well as the interventions which have kept it viable.
  3. Stimulate flexibility and adaptability.  The interventions in an historic structure should not just allow flexibility and adaptability, but also stimulate it.  Adaptability to the environment, uses, occupant needs, and future technologies is critical to the long service life of a historic building.
  4. Extend service life.  Interventions in historic buildings should help to make the building useable for the long term future – not shorten the service life.
  5. Fortify against extreme weather and shortages of materials and energy.  Interventions should prepare the building for the impacts of climate change by reducing energy consumption, reducing consumption of materials through durable material selections, and be able to be fortified against extreme natural events such as hurricanes and tornadoes.  Ideally buildings would be designed appropriately for seismic zones and sea level change.
  6. Increase durability and redundancy.  Interventions in historic buildings should use equally durable building materials.  Materials that deteriorate more quickly than the original building fabric require further interventions and shorten the service life of the building.
  7. Reduce the likelihood of obsolescence.  The building should be able to continue to be used for centuries into the future. Take an active approach:  regularly evaluate and review current status in terms of future service capacity.  Scan the trends to provide a fresh perspective and determine how your historic building will respond to these trends.
  8. Consider long term life-cycle benefits.  The embodied energy in existing structures should be incorporated in environmental, economic, social, and cultural costs for any project.
  9. Incorporate local materials, parts and labor.  The parts and materials used in historic building interventions should be available locally and installed by local labor.  This means that the materials and manufacturing capabilities will be readily available in the future for efficient repairs.


Due to the lack of literature specifically addressing the future-proofing of the extant building fabric in historic structures, it is important to look to related concepts.  In some areas, this opens the discussion to very broad areas.  Below is an image by the author of the literature web delineating related terminology.  Items shown in red are relevant for conceptual understanding of future-proofing as applied to existing buildings.  Items shown in green are areas likely to be more fruitful in understanding the future-proofing of existing structures.

Resilience is a concept closely related to future-proofing.  Both seek to account for the ability of a building to handle unknown stresses in the future.  However, future-proofing is a broader term than resilience.  Future-proofing includes the concepts of not promoting deterioration, obsolescence, applicability to historic structures, and long term life cycle benefits, whereas resilience largely refers to the ability of an ecosystem to bounce back from and adapt to stresses.

There are several other closely related areas of study within the practice of architecture that are related to future-proofing as well.  Good practice in architectural design always seeks to find the best route to meet a plethora of divergent goals through a building design.  Building science and building technology seek to find the best solution of a particular building assembly to meet environmental and constructability concerns.  Building envelope failures and the science of forensic architectural investigation work toward a better understanding of why bad things happen to buildings and how to not only remedy them, but to prevent them from occurring again in the future.  Incorrectly designed interventions in historic structures and the resulting reduction in the service life of the building is another area closely related to future-proofing.  From each of these areas, there are contributions toward the practice of future-proofing historic buildings.  Future-proofing seeks to provide a framework for consideration of all of these areas of architectural practice.

In conclusion, while there is very little literature specifically related to future-proofing historic structures, there is a significant body of knowledge around the concept of future-proofing within the AEC industry and in other related industries, including:

  • Electronics, Data Storage, & Communications Systems
  • Industrial Design
  • Utility Systems
  • Climate Change and Energy Conservation

These are industries in which “future-proofing” is regularly used.  This body of knowledge may be used to develop a set of principles of future-proofing.   The 10 Principles of Future-proofing and their derivation from related industries can guide the application of the concept of “future-proofing” to and historic structures.  The 10 Principles of Future-Proofing historic buildings are:

  1. Comply with the Secretary’s Standards.
  2. Not promote deterioration – do no harm.
  3. Allow understanding of the historic structure.
  4. Stimulate flexibility and adaptability.
  5. Extend service life.
  6. Fortify against extreme weather and shortages of materials and energy.
  7. Increase durability and redundancy.
  8. Reduce the likelihood of obsolescence.
  9. Consider long term life-cycle benefits.
  10. Incorporate local materials, parts and labor.


Further research on this subject includes the review of the broader subjects related to future-proofing structures, including building science, building technology, etc., as illustrated above.  In addition, further analysis of the capabilities, constraints, and ability of computational software to describe historic building assemblies is required.  While there is a significant body of research regarding the use of building simulation software to describe building performance, it is not clear whether this includes simulation of existing historic structures or whether historic structures are considered too anomalous to be good candidates for simulations.


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