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The nature of positive

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  • Regenesis Institute for Regenerative Practice

Abstract

The ‘net-positive’ concept could serve as both a new direction and an aspiration for evolving sustainable design beyond minimizing human damage toward human habitation that is a source of life. This commentary posits that realizing that potential depends on how practitioners define positive. Describing net-positive as ‘buildings that “add value” to ecological systems and generate more than they need to fulfil their own needs’ moves net-positive beyond simply a technical challenge of creating surpluses to one that requires confronting the widely different interpretations of value and value-adding held within the sustainability movement. ‘Green’ building, like the building industry, generally defines and measures a building's value in terms of human benefit. Ecological sustainability defines value in terms of benefits to the systemic capability to generate, sustain and evolve the life of a particular place. Reconciling these different definitions could transform how society conceives of and designs the built environment. Building professionals seeking to translate net-positive into practice could play a leading role in that transformation. Practice will need to embrace ecological thinking to create design, construction and ongoing management processes that stimulate dialogue about what it means for humans to play a value-adding role in the ecological systems where they are constituents.
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The nature of positive
Pamela Manga & Bill Reeda
a Regenesis Group, 1219 Luisa Street, Suite 5, Santa Fe, NM 87505, US
Published online: 25 Apr 2014.
To cite this article: Pamela Mang & Bill Reed (2015) The nature of positive, Building Research & Information, 43:1, 7-10, DOI:
10.1080/09613218.2014.911565
To link to this article: http://dx.doi.org/10.1080/09613218.2014.911565
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COMMENTARY
The nature of positive
Pamela Mang and Bill Reed
Regenesis Group,1219 Luisa Street, Suite 5,Santa Fe, NM 87505,US
E-mails: pamela@regenesisgroup.com and bill@regenesisgroup.com
The ‘net-positive’ concept could serve as both a new direction and an aspiration for evolving sustainable design beyond
minimizing human damage toward human habitation that is a source of life. This commentary posits that realizing that
potential depends on how practitioners define positive. Describing net-positive as ‘buildings that “add value” to ecological
systems and generate more than they need to fulfil their own needs’ moves net-positive beyond simply a technical challenge
of creating surpluses to one that requires confronting the widely different interpretations of value and value-adding held
within the sustainability movement. ‘Green’ building, like the building industry, generally defines and measures a
building’s value in terms of human benefit. Ecological sustainability defines value in terms of benefits to the systemic
capability to generate, sustain and evolve the life of a particular place. Reconciling these different definitions could
transform how society conceives of and designs the built environment. Building professionals seeking to translate net-
positive into practice could play a leading role in that transformation. Practice will need to embrace ecological
thinking to create design, construction and ongoing management processes that stimulate dialogue about what it
means for humans to play a value-adding role in the ecological systems where they are constituents.
Keywords: built environment, ecological sustainability, living systems, net-positive, place, regenerative design, social–
ecological system
The term ‘net-positive’ is a succinct and catchy phrase
that could serve well as both a signpost for the direc-
tion that needs to be pursued beyond ‘green’ building
and a standard-bearer for rallying the energy, enthu-
siasm and creativity required to make human habi-
tation of the Earth a source of life. It could provide
the framework for pursuing what has always been
implied in the concept of sustainability. However,
this was not explicitly recognized until recently: if
what society seeks to sustain are the conditions
required for healthy life through time, then the way
humans create and inhabit the built environment
must contribute to those conditions. Whether it suc-
ceeds will depend in large part on how those working
to translate it into practice define positive.
In more popular literature, net-positive is often used as
short-hand for buildings that generate more resources/
energy than they consume. Given the increasing sophis-
tication of green technologies, it is not surprising that
generating a surplus beyond a building’s needs is seen
as an inevitable and exciting next step. Its pursuit is
made even more attractive by the implicit potential
for economic return. However, such a pursuit is not
without significant hazard.
In nature, an under- or unused surplus is a pollutant
with potentially disabling if not toxic results for the
larger system (Mollison, 1999, p. 18). Humans are
already the primary source of such surpluses turned
pollutants, e.g. so-called ‘nutrients’ that wash into
streams from fertilized fields, leaking dairy waste
storage ponds and, most famously, greenhouse gases.
In this light, the Building Research & Information
‘call for papers’ summary of net-positive
1
as ‘buildings
that “add value” to ecological systems and generate
more than they need to fulfil their own needs’ adds a
significant caveat to what makes surplus a positive.
This caveat seems key to differentiating net-positive
from simply a more advanced version of green technol-
ogies with wider marketing appeal. It also positions at
the core of the net-positive design challenge the need to
reconcile the widely different interpretations of value
and value-adding that exist within the sustainability
movement.
Green building was developed from the sciences of the
physical world and a mechanistic worldview. This is
the same foundation that most of the thinking and
technologies of the building industry rely on. It has
produced an industry structure and culture in which
BUILDING RESEARCH &INFORMATION 2015
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the value of a building is still generally defined in terms
of human benefit, most often measured in relatively
short-term financial returns and human health. From
this anthropocentric perspective, ‘ecological systems’
are resources or amenities to be managed and utilized
for human purposes, so adding value to an ecological
system must perforce mean making it more valuable
to sustain human activity. The movement to assign
monetary value to ecosystem services, which was
stimulated by the desire to prevent further destruction
of natural resources, was an effort to broaden this defi-
nition. So long as it is rooted in the anthropocentric
and building technology-oriented way of thinking, it
may simply be seen as an infrastructure-oriented and
quantitative accounting exercise. The implicit sugges-
tion is that such anthropocentric and technological
perspectives may be abandoned if the numbers do
not add up.
In contrast, from an ecological worldview, the almost
infinite interrelationships of ‘ecological systems’ are
the way living entities, including humans, relate to,
interact with and depend upon each other in a particu-
lar landscape in order to pursue and sustain healthy
lives. Eugene Odum spoke of ecology as the study of
living beings in their home (Odum & Barrett, 2004).
Many indigenous people refer to the plants, animals,
insects and even geological features they live with as
relatives. Regenerative Development uses the term
‘partners’ (Reed, 2007) to describe the members of
an ecological system in the sense of partners in the
business of creating the conditions that support
healthy life in the place they co-inhabit. In this bio-
centric perspective, value is defined in terms of benefits
to life. Adding value to an ecological system means
increasing its systemic capability to generate, sustain
and evolve increasingly higher orders of vitality and
viability for the life of a particular place.
These are radically different ways of defining value.
Despite their implications for sustainability, they
remain largely unreconciled, in part because they
are usually held unconsciously. Net-positive has
tended to hover uncomfortably with a foot in both
camps. This is not simply a philosophical discussion;
the definition used has implications for every aspect
of a net-positive building, from the starting point
for design thinking to how to measure the effect
and effectiveness of how surpluses are deployed.
Setting a standard of adding value to ecological
systems will hopefully bring the question to the
fore. Indeed, it could be argued that net-positive’s
real potential resides in transforming how society
conceives of and designs the built environment. It is
not a question of the new performance standards
such buildings deliver. Instead, its potential may be
its invitation to explore the questions these new per-
formance aspirations raise: how society defines and
measures value, and what it means for humans to
play a value-adding role in the ecological systems
where they are constituents.
An example of how net-positive could stimulate such
an exploration has precedent in the investment indus-
try. A parallel to net-positive has emerged under the
term ‘impact investing’ investments that move
beyond socially responsible investing (SRI) (i.e. mini-
mizing damage) to investing for a ‘positive impact’
(Freireich & Fulton, 2009). When the term was
coined in 2007, hundreds of initiatives had sprung
up around the world aimed at leveraging financial
investments to create greater social and environ-
mental health. The term provided a common identity
to these diverse but largely unconnected initiatives,
and catalysed a more aligned effort to increase both
the number and the effectiveness of investments
aimed at positive impact (Story of Place Institute,
2013).
Initially, the main focus of impact investing dealt with
the technical aspects of how to attract and funnel more
investments into addressing social and environmental
issues; this is the equivalent of net-positive’s focus on
how to generate excess resources to support ecological
systems. The dominant industry paradigm that invest-
ment was about growing stocks and flows of financial
capital was largely unquestioned. The only issue was
how to divert more of that capital for ‘positive’ uses.
Spurred by a grassroots’ local economy movement,
interest in impact investing is now multiplying
rapidly. The challenge of translating impact investing
into tangible, measurable advances at the community
level is bringing professionals and non-professionals
together to explore the meaning and purpose of invest-
ment.
2
A more ecological way of thinking about invest-
ing is dismantling the old silos of interest and
catalysing an outpouring of creative, unorthodox
investment models and partnerships that would have
been inconceivable within the old investment
paradigm.
For many building industry professionals, the world of
ecology and living systems can seem dauntingly
complex. The innovations emerging from impact
investing illustrate that the inclusion of ecological
thinking does not require everyone becoming an
expert in the discipline of ecology. Impact investing
innovators striving to apply ecological thinking to the
design of new investment models are making up the
design process as they go. In contrast, net-positive
can draw on a number of methods and practices that
have emerged over the last few decades from within
what David Orr (Orr 1992) called ecological sustain-
ability (in contrast to technological sustainability).
Grounded in the belief that sustainable living is
rooted in a deep understanding of place, these
methods have allowed the application of key concepts
and principles drawn from living systems and utilized
Mang and Reed
8
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by applied naturalists and ecological systems experts to
shape design and construction processes for years. For
example, regenerative development, regenerative
design and integrative design processes use ecological
thinking to guide a collective discovery process.
The intention of this process is to develop a deeper
understanding of how a project’s context works as a
living, multilayered whole when it is healthy, what is
currently depleting its health, and the unique value-
adding role the project can play in contributing to
conditions that can restore and enhance that health
(Mang & Reed, 2012).
How would ecological thinking shift the way building
industry professionals think about adding value to
ecological systems? One shift directly relevant to
determining how to add value has to do with the
idea of causation. Gregory Bateson (Bateson 2011)
noted that in order to think ecologically, a shift is
needed in the way people are trained to think about
causation. One of the best-known and clearly docu-
mented examples of why is what happened in Yellow-
stone National Park in the United States when wolves
were reintroduced in 1995 after a 70-year absence.
3
Within a surprisingly short time, valleys and gorges
started to regenerate and bare valley sides turned
into forests of cottonwoods, aspens and willow. In
some areas trees quintupled in height in less than six
years. Populations of songbirds, beavers, muskrats,
fish and reptiles multiplied. Hawks and eagles as
well as bears showed up in greater numbers. Even
the physical geography and behaviour of the river
changed to support more life. The wolves ‘caused’
these changes, but not in the linear way that tra-
ditional thinking posits about cause. Instead, the
wolves are living out their role within that ecological
system.
4
In an ecological system, one species fulfilling
its role enables all the other species to play their roles,
even those where there is no direct connection. The
value of a role in an ecological system derives not
from how something functions, but rather from the
pattern of relationships that enable particular
exchanges of value.
Thinking of causation in this way, building industry
professionals would ask very different questions. For
example, instead of starting with the building and
what surplus it can generate, a designer would start
by asking what ecological services have been disen-
abled in this place and what roles are missing that
enabled those services in the past. Instead of asking
how to deploy any excess in order to add value, a
designer would ask what is the role of this particular
project and the land it occupies in the larger systems
of its place. How does its role enable other entities to
play their roles? What are the patterns of relationships
that need to be established or re-established between
the building, its occupants and its community to
enable their positive roles reciprocally? And then,
what specific ‘positives’ can this project offer and/or
catalyse.
Design, construction and ongoing management pro-
cesses that integrate these kinds of questions can
become educational vehicles for the design team, the
client and community stakeholders. Situating a build-
ing’s role within the ecology of its place requires a
different way of thinking to understand it. It must be
conceived as an ongoing process as well as a structure
that, like the example of the wolves, has wide-ranging
systemic implications for shifting patterns of behaviour
in a positive way far beyond its immediate physical
sphere. It is an example of the nature of ecological
thinking described by Orr 20 years ago as ‘the ability
to comprehend patterns that connect, which means
looking beyond the boxes we call disciplines to see
things in their larger context’ ... to see ‘the larger pat-
terns and flows’ that then inform human purpose
(Orr, 1994, p. 108). Performance targets then grow
out of a much broader-based understanding of opportu-
nities for synergy that are specific to the role a project
can play in the evolution of its place.
Buckminster Fuller thought of himself as a designer,
and the process of change as a question of design. He
believed that the only way to change things was to
build a new model that made obsolete the existing
model.
5
The example of impact investing demonstrates
how a new and very small sector within the investment
industry is shifting the conversation in surprising quar-
ters; doing so by bringing in new ways of thinking.
Net-positive design has the same potential provided
that value is understood in the context of place, time
and relationships within the whole living system
within which the project plays a role.
References
Bateson, N. (2011). An ecology of mind. (film) Bullfrog Films.
DVD ISBN 1-59458-905-4.
Freireich, J., & Fulton, K. (2009). Investing for social and
environmental impact: A design for catalyzing an emerging
industry. San Francisco: Monitor Institute. www.
monitorinstitute.com/impactinvesting or http://www.
thegiin.org/cgi-bin/iowa/resources/research/6.html
Mang, P., & Reed, B. (2012). Designing from place: A regenera-
tive framework and methodology. Building Research &
Information,40(1), 23– 38.
Mollison, B. (1999). Permaculture: A designers’ manual. Tasma-
nia: Tagari.
Odum, E. P., & Barrett, G. (2004). Fundamentals of ecology (5th
ed.). Belmont, CA: Thomson Brooks/Cole.
Orr, D. (1992). Ecological literacy: Education and the transition
to a post-modern world. Albany: State University of
New York Press.
Orr, D. (1994). Earth in mind. Washington: Island Press.
Reed, B. (2007). Shifting from ‘sustainability’ to regeneration.
Building Research & Information,35(6), 674–680.
Story of Place Institute. (). Place-Sourced Impact Investing: Invest-
ing as an Instrument for Community Transformation, http://
storyofplace.org/SF_Impact.html
The nature of positive
9
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Endnotes
1
Call for papers, special Building Research & Information
issue on net-positive. http://www.tandf.co.uk/journals/cfp/
rbricfp.pdf
2
Place-Sourced Impact Investing: Investing as an Instrument for
Community Transformation. http://storyofplace.org/SF_Impact.
html
3
Ecological Benefits of Wolves, Sierra Club Wyoming Chapter.
http://wyoming.sierraclub.org/ECOLOGICAL%20BENEFITS%
20OF%20WOLVES.pdf
4
How Wolves Change Rivers (video). http://www.wimp.com/
wolvesrivers
5
Fuller, R. B. (January 20, 1975) ‘Everything I Know’ session 01.
http://bfi.org/about-fuller/resources/everything-i-know/session-1
Mang and Reed
10
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... The concept of net/positive energy development represents a paradigm shift in sustainability, integrating environmental governance, planning, and design principles into exurban development (Janda et al., 2021;Mang & Reed, 2015). It encompasses both fundamental sustainable practices and advanced green initiatives tailored to specific contexts (Feng et al., 2019). ...
... Designers and stakeholders then transition toward mutually beneficial relationships, fostering a system of ecological diversity. This approach moves beyond environmental sustainability toward enhancing environmental health, benefiting both ecosystems and human well-being (Mang & Reed, 2015;Vardopoulos et al., 2024). This approach also addresses energy, carbon, and climate concerns through urban form and transportation systems, stormwater management, material reuse, urban food systems, and air quality improvement (Attia, 2018a(Attia, , 2018b. ...
Chapter
The pursuit of zero-net (or positive) energy real estate development in rural and exurban districts holds immense promise for bolstering social ecosystems, while improving environmental conditions. The present contribution thoroughly delves into the methodologies and tools crucial for embedding sustainable principles within the design, planning, and development of zero-net energy real estate projects, alongside scrutinizing the motivating factors and advantages underpinning sustainable built environment practices. Through a meticulous examination of the published scholarly literature and in-depth analysis of existing case studies and examples of net-positive or net-zero energy real estate developments in rural and exurban districts, a comprehensive understanding of prevailing approaches and research trajectories was furnished, offering valuable insights into successful implementations and potential areas for improvement. Moreover, the current study emphasizes the importance of guiding mindsets, behaviors, and outcomes within society to expedite a seamless transition toward a sustainable future. Findings elevate existing sustainability strategies to reflect a collective ambition to transcend the negative impacts of human evolution toward a healthier society and environment. This research offers broader implications for policy-making, spatial and urban planning, and community engagement efforts, accentuating the necessity for collaborative strategies and well-informed decision-making processes, to instigate positive change and address the overarching societal impact.
... Instead, it advocates for a fundamental reimagining of humanity's relationship with the broader ecosystem, portraying humans as active participants in restoring and co-evolving with nature. RD charts a course towards greater wholeness and collaborative integration with the natural world, emphasizing the cultivation of productive symbiosis between human activities and ecological systems [10,14]. Numerous studies have highlighted that sustainability, often seen as a state of equilibrium, falls short in fostering lasting urban development and environmental improvement. ...
... Recent studies illustrate this growing trend, such as examining ''regeneration'' in business models (Konietzko et al., 2023), value chains (Bag, 2023;Bag & Rahman, 2024), and even business strategy (Das & Bocken, 2024). We find regenerative sustainability conceptualized as procedural, systemic, collaborative, relational, and net-positive regeneration that enhances the resilience and adaptive capacity of systems (du Plessis & Cole, 2011;Holden et al., 2016;Mang & Reed, 2012;Robinson & Cole, 2015;Zhang et al., 2015). We contribute to this emerging body of knowledge on regenerative business and explore regeneration in the context of business innovation. ...
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Wicked problems of climate change, extreme weather events, pandemics, and rising inequality are pushing businesses to explore the next frontiers of resilience, innovation, and sustainability. Although previous studies have examined diverse aspects of resilience, innovation, and sustainability independently, attempts to integrate all three are limited. Further, in the literature, there is a growing need to adopt an interdisciplinary approach to regeneration for solving wicked problems. We aim to address this gap by combining a systematic literature review with practice review methodology to unearth evidence and research themes that integrate resilience, innovation, sustainability, circularity, and regeneration. In this paper, we present 10 cases, including diverse businesses and Net Zero Cities that have adopted business practices for regenerative, sustainable, and circular value creation. In doing so, we extend the discourse on sustainable or circular business models by proposing a definition of regenerative innovation and developing four archetypes of regenerative innovation (urban transformation innovation, technological innovation, responsible innovation, and business model innovation). We draw from the theoretical lens of socio-ecological systems to present nature as the key stakeholder for regenerative businesses. We make novel contributions to theory, practice, and policy by highlighting a new system-based paradigm of regenerative innovation for future resilient products and services.
... The studio, which introduces students to design-decision processes related to environmental technology and high-performance regenerative practices, is divided into two half-semester modules: "Net Positive Design," in the first half, and "Integrated Design" in the second. The Net Positive pedagogy is informed by Mang and Reed (2015), who refer to net positive buildings as those that "add value" to ecological systems and generate more energy than they require to meet their own needs. The Integrated Design approach is aimed at educating students in the decision-making processes involved in integrating "building envelope systems and assemblies, structural systems, environmental control systems, life safety systems, and the measurable outcomes of building performance" (National Architectural Accrediting Board 2020). ...
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We describe a simple Rhino-based method for introducing embodied-carbon analysis in early design stages. The method produces visualizations comparing the relative quantity of materials, and estimates per-material weights to calculate the overall (simulated) weight of Rhino models. We position our method as a means of introducing architecture students to embodied-carbon concepts and digital modeling practices.
... This highlights the inadequacy of relying solely on 'sustainable' approaches to address and ultimately reverse environmental degradation and the factors contributing to climate change within the built environment. Against this backdrop, Mang and Reed (2015) asserted that existing sustainable practices fall short of achieving 'true sustainability.' According to their viewpoint, true sustainability goes beyond the limited scope of merely reducing negative environmental impacts or preserving the existing state of our built environment. ...
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While sustainable construction practices effectively reduce environmental impact, their exclusive focus on environmental, economic, and social goals limits their ability to actively foster positive transformation and ecosystem restoration. Addressing the growing challenges in the built environment necessitates a shift to regenerative practices within the construction industry. Unlike sustainability, regenerative practices go beyond the concept of merely sustaining the status quo; they are geared towards actively enhancing and restoring the built environment over time. However, implementing these practices is less prominent in the construction industry due to the absence of a suitable tool for evaluating their expected performance outcomes. This study bridges this gap by introducing a novel performance evaluation framework for implementing regenerative construction practices, establishing a benchmark for implementation. Through an extensive literature review and data collection from a committee of regenerative outcome leads, we employ the Fuzzy Analytical Hierarchical Process (FAHP) to establish interconnections among key regenerative performance criteria. Results highlight the dominant significance of “Healthy, more resilient, and connected communities,” surpassing other criteria like “Thriving and prosperous natural systems,” “Prosperous and resilient local economies,” and “Net-positive environmental development.” The proposed evaluation framework offers theoretical and practical implications, fostering a new theoretical approach that exceeds sustainability standards and provides tangible guidance for construction decision-makers.
... The Net Positive Design module, initially offered as an independent half-semester studio, was originally introduced at our institution by our colleagues Mary Guzowski and Richard Graves. 23 The module's approach was informed by prior research in the area, 24 and is compatible with strategies such as biophilic design in pursuit of overall positive impacts. 25 The second-half module, "Integrated Design," emphasized the coordination of building systems, envelope, structures, and performance factors. ...
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The radical changes required for Earth to 'remain fit for human habitation' require a change in worldviews from 'mechanistic' to 'ecological'. A key question is: how can those working on the built environment - a field with major impact on global resources and systems - best support a smooth and timely transition? It is proposed that design practitioners can facilitate that response in the built environment through the development, application and evolution of comprehensive new methodologies, explicitly shaped by a regenerative sustainability paradigm. It is further proposed that successfully evolving a regenerative practice requires going beyond just adopting new techniques to taking on a new role for humans and designers, and a 'new mind', and learning how to work 'developmentally'. As an example of how a consciously held worldview shapes a practice, an actual regenerative methodology, developed and evolved over 16 years of practice, is explored in detail. A framework, adapted from accepted scientific methodology protocols, is used to structure this exploration, differentiating the different elements and levels, showing how they work as an integrated system and revealing the underlying premises and assumptions behind the choice of aims, strategies, methods and progress indicators.
An ecology of mind. (film) Bullfrog Films
  • N Bateson
Bateson, N. (2011). An ecology of mind. (film) Bullfrog Films. DVD ISBN 1-59458-905-4.
Investing for social and environmental impact: A design for catalyzing an emerging industry
  • J Freireich
  • K Fulton
Freireich, J., & Fulton, K. (2009). Investing for social and environmental impact: A design for catalyzing an emerging industry. San Francisco: Monitor Institute. www. monitorinstitute.com/impactinvesting or http://www. thegiin.org/cgi-bin/iowa/resources/research/6.html
Permaculture: A designers' manual. Tasma-nia: Tagari Fundamentals of ecology
  • B Mollison
  • E P Odum
  • G Barrett
Mollison, B. (1999). Permaculture: A designers' manual. Tasma-nia: Tagari. Odum, E. P., & Barrett, G. (2004). Fundamentals of ecology (5th ed.). Belmont, CA: Thomson Brooks/Cole.
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