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Article

Regenerative and Participatory Co-Design in Biosphere Reserve Contexts

by
Carlos Cobreros
*,
Morena Villalón
,
Gabriel E. Calle-Sáenz
,
Adriana Rivas-Madrigal
,
Luis Miguel Gutierrez-Contreras
,
Daniela B. Arias-Laurino
and
Mariana Covarrubias-Castro
School of Architecture, Art and Design, Tecnologico de Monterrey, Querétaro 76130, Mexico
*
Author to whom correspondence should be addressed.
Land 2026, 15(4), 542; https://doi.org/10.3390/land15040542
Submission received: 13 February 2026 / Revised: 19 March 2026 / Accepted: 20 March 2026 / Published: 26 March 2026

Abstract

Humanity is facing an unprecedented socio-ecological and climate crisis resulting from human impact on the planet, which requires a profound transformation in how we inhabit and develop our territories. Regenerative development is emerging as a key approach to strengthening living systems and improving environmental health. In this context, United Nations Educational, Scientific and Cultural Organization (UNESCO) Biosphere Reserves are consolidating their role as strategic instruments that link biodiversity conservation with sustainable development through integrated and participatory land management models. Mexico stands out for its regional and global leadership in implementing these areas. Participatory governance, promoted by the Man and Biosphere (MAB) programme, encourages the active involvement of local communities. This article analyses the application of a regenerative and participatory design methodology in a Biosphere Reserve, evaluating both the process and the tools used. Beyond the fulfilment of sustainability objectives, it examines the lessons learned, results and scope from a regenerative perspective, providing critical reflections on its effectiveness as a strategy for the socio-ecological management of vulnerable territories.

1. Introduction

Humanity is currently immersed in an era in which human impact has led the planet to an unprecedented socio-ecological collapse [1]. This period is characterised by an industrial development model based on unlimited extractivism, which dissociates nature, society and the economy, severely affecting ecosystem services [2], including accelerated species extinction, alterations in phosphorus and nitrogen cycles, ozone depletion and pollution [3,4]. This planetary emergency is accompanied by social crises and new global diseases [5,6].
The contemporary socio-ecological and climate crisis demands a profound transformation in the way we inhabit and develop territories [7]. Several authors advocate a shift towards ecosystemic thinking that promotes ecological and social justice, respecting nature’s regenerative capacity [1,8]. The current sustainability paradigm, focused on minimising damage, is insufficient to regenerate degraded ecosystems or to promote their evolution [9]. A shift towards regenerative development is necessary to strengthen living systems and improve the health of the planet as a whole [10].

1.1. Theoretical Framework

1.1.1. Biosphere Reserve

UNESCO Biosphere Reserves (BRs) are established as consolidated international instruments for coordinating biodiversity conservation with sustainable development, positioning themselves as strategic frameworks for territorial management and socio-ecological systems [11]. Designated under the Man and the Biosphere (MAB) programme, created in 1971 to improve the relationship between society and nature through conservation, sustainable development, and logistical support for research and education [11,12], these areas operate under inclusive, flexible, and multi-stakeholder governance schemes, adapted to local contexts and aimed at addressing interrelated issues from integrated and holistic approaches [13,14,15].
RBs fulfil three interdependent functions: conservation of genetic resources, species, ecosystems, and landscapes; promotion of sustainable socioeconomic development; and logistical support through education, research, monitoring, and demonstration projects [16,17]. In this sense, they act as living laboratories and spaces for the co-production of knowledge for sustainability science and climate action, strengthening the interface between science, public policy, and education [12,18,19]. Their articulation within the World Network of Biosphere Reserves facilitates the exchange of learning, innovation, and best practices at multiple levels [12,20]. Aligned with the Sustainable Development Goals and multilateral agreements such as the Convention on Biological Diversity and the Paris Agreement, BRs are emerging as key strategies in addressing the triple challenge of the Anthropocene: biodiversity loss, climate change, and human well-being [12,13,14]. By 2025, the network exceeded 740 reserves in more than 130 countries, including transboundary initiatives [11].
Operationally, RBs are structured into core, buffer, and transition zones, integrating strict protection, compatible uses, and sustainable development, reflecting the transition from segregated conservation models to integrated and territorial approaches [21,22,23,24]. However, gaps remain between the conceptual framework and its effective implementation, as well as an underutilised potential for applied research in sustainability [19,25,26].
Participatory governance emerges as an enabling condition. The MAB Statutory Framework and Technical Guidelines establish flexible principles that promote the active involvement of communities, governments, the private sector, and scientific actors in the design and implementation of reserves [16,27,28]. The MAB Strategy 2015–2025 and the Lima Action Plan reinforce collaborative and equitable planning processes [12]. Similarly, approaches such as adaptive governance, equity, and biocultural integration strengthen institutional and social resilience [29,30,31,32,33]. Together, BRs are establishing themselves as experimental territories for socio-ecological transformation and long-term sustainability.
Mexico occupies a strategic position in global conservation, as it has the largest number of biosphere reserves in Latin America and the Caribbean and ranks third worldwide, thereby consolidating its regional leadership in implementing this socio-ecological management tool [34]. This relevance stems from its status as a “megadiverse” country, defined by the interdependence between biological and cultural diversity as the basis of its socio-environmental dynamics [35]. In this context, biosphere reserves articulate conservation, biocultural heritage, and sustainable development [35].

1.1.2. Regenerative Development and Design

Ecologies of Care
The concept of ecologies of care emerges as a methodological and ethical proposal in response to socio-ecological collapse. Care is understood as a network of interdependent relationships that sustain ecosystems and communities, rather than as an individual practice [36]. Wendell Berry (1977) [37] asserts that we must care for the earth with respect and reciprocity. Leonardo Boff (1995) [38] suggests that care involves attention, connection, empathy, and compassion for the Earth. From a feminist and territorial perspective, care cannot be understood as an abstract or universal practice, but rather as a relationship of interdependence situated, historically constructed, and territorialised [39,40]. In rural contexts such as San Gaspar, the ecologies of care are embodied in everyday practices linked to sustaining life (water management, the transmission of ecosystem knowledge, intergenerational accompaniment, and community organisation) that have historically been assumed by women [41]. Recognising these practices does not mean romanticising them but rather politicising them as fundamental infrastructures for the socio-ecological regeneration of the territory. In this sense, the forest is no longer understood solely as an ecosystem to be conserved, but rather as a living infrastructure of care, where bodies, memories, affections, and knowledge are intertwined, understood as inseparable dimensions of the territory and the collective body that inhabits it [42]. The ecologies of care make visible the interdependence between human and non-human systems, shifting the centrality of design from form to the links that sustain life and enable the continuity of the territory as a living system (Figure 1).
This link is key to regenerative design, which supports growing with nature and society, overcoming distance, and building ways to work together on these changes [43].
Regenerative Development and Design
Regenerative development redefines sustainability in terms of resilience and capacity for reorganisation and adaptation [44]. It proposes healing and improving damaged territories, moving from a mechanistic to an ecological view of the world [45,46,47], based on complexity and systems thinking [48,49,50]. From this perspective, regenerative design is conceived as a collaborative process between living systems and human systems, aimed at revealing and enhancing the unique character of the place [47], seeking to co-create conditions that allow ecosystems to thrive and evolve together towards regenerative development [7].
Regenerative design translates the conceptual framework of regenerative development into applied practice [51]. Du Plessis [52] identifies four theoretical principles: (1) Human systems are part of ecosystems; human activities must contribute positively to their evolution; (2) Every action must respond to the context of the place; (3) Participatory and reflective processes are essential.
Lyle (1996) [45] conceives regenerative design as processes that restore and renew their own energy sources, emulating the logic of ecosystems. This holistic and self-organised vision embraces uncertainty as part of creativity and places life at the centre of design. From this perspective, the Anthropocene crisis demands an ethic of care and co-evolution [53].
The fundamental principles of regenerative design [54,55] are: (1) Work from the whole system; (2) Build on the essence and potential of the place; (3) Promote nested development and nodal intervention; and (4) Recognise that only the living regenerates and that interrelationships sustain life. These principles can be translated into small-scale interventions, organised into activation nodes and thematic centres, which can extend from the microbiological to the territorial level [9]. These actions foster positive coevolutionary processes [56] by integrating creativity, technology, and community life.
Regenerative Responsibility
The design learning process addresses topics such as sustainability, social innovation, and professional ethics. However, these topics often become diluted as the process progresses. Their permanence depends on commitment and maintaining a critical and consistent stance toward thinking that is not only sustainable but also regenerative [57]. Faced with this challenge, Regenerative Responsibility (RR) emerges as a proposed regenerative pedagogical model [58] that promotes the implementation of a pluriversal vision in design project work [59]. Its objective is to consolidate a lasting commitment to the transition from sustainable to regenerative thinking [60]. RR can be exemplified by the presentation of the Relational Regenerative Design methodology, based on principles of regenerative and relational design, developed within the RR framework as a strategy to integrate this vision into academic practice.
Regenerative Understanding of Place
The methodological approach to regenerative design proposed here is derived from the idea of ‘Understanding of Place’ developed by the Regenesis Group [48], which is a tool for identifying the uniqueness and evolutionary potential of each territory, based on four key premises: (A) the co-evolutionary role of human activity; (B) the transformation of perspectives; (C) the redefinition of the role of the designer as a mediator; (D) and the development of the regenerative capacities of the place, understood as an anthropic community and a physical place or natural system in which it is inserted. It also proposes six key concepts [48]: (1) regeneration as a catalyst for positive human impacts; (2) deep design practices; (3) the notion of place as a complex network of living systems; (4) pattern literacy as a language of relationships; (5) the unique narrative of place; and (6) potential, understood as the capacity inherent in its essence. It structures a three-part work process [44]: part 1, a deep understanding of the place to identify its potential; part 2, integration of technologies and systemic frameworks; and part 3, application of ecological design.
Systemic Design
Regenerative design and systemic thinking provide a theoretical and methodological framework for addressing contemporary socio-ecological crises [61]. Unlike conventional sustainability approaches, which aim to mitigate impacts and maintain existing conditions, these approaches propose a profound transformation of the systems that sustain life, questioning extractive, hierarchical and universalising logics [62]. Systemic thinking provides analytical tools for understanding the complexity, interdependencies and power relations in socio-ecological systems. Instruments such as gigamaps, synthesis maps, and socio-ecological mapping enable visualisation of material flows, actors, and situated knowledge, as well as the dynamics of exclusion that are often overlooked in design processes [63]. Within this framework, regenerative design defines an ethical and political horizon aimed at promoting conditions for self-restoration and flourishing of social and natural systems [64].
This articulation takes shape in Systemic Design or System-Oriented Design (SOD), which integrates systems science with design practices to identify leverage points where strategic interventions activate significant transformations in complex systems [65]. Systemic Design finds in care economies an ethical framework that extends its scope beyond technical efficiency. As Falú (2014) [66] points out, territories are structured based on a sexual division of labour that renders care tasks invisible. Integrating this perspective involves recognising care as socio-environmental infrastructure and shifting the points of leverage towards everyday life, accessibility and social co-responsibility [67].
A central component of this approach is reflexivity, understood as a continuous process through which researchers and designers, together with the communities involved, critically examine their own assumptions, values, and positions of power [68]. This practice is key to inhabiting the uncertainty inherent in so-called wicked problems and to avoiding the reproduction of systemic injustices during transformation processes [64]. Likewise, the methodology emphasises the relevance of situated and place-based knowledge, as well as embodied and everyday practices, recognising that territories are not mere physical supports, but living networks of relationships, memories and care [69].
Participatory Design: Co-Designing with Communities
Regenerative design is conceived as a collaborative process developed together with the user community, articulated to the landscape, the natural context and the socio-economic and cultural conditions of the territory, which redefines the role of the designer, who adopts a flexible and situated function, adapting to the particularities of the place and the collective with which they work [70]. Like any design process, it is structured in a recursive, iterative manner, integrating phases of conceptualisation, ideation, prototyping, and continuous community validation [71].
Participatory processes seek to build collaborative networks, strengthen local regenerative capacities and comprehensively understand social, ecological and cultural systems [70]. From this perspective, inhabitants are recognised as central agents of territorial transformation, overcoming colonialist or extractivist approaches. In line with Escobar (2018) [59], participatory design can operate as a tool for autonomy and resistance, promoting interdependent relationships between humans and non-humans.
Collaboration between communities and researchers is supported by tools for two-way information exchange, which facilitate the production of qualitative narratives that reveal identities, memories, and dynamics specific to each territory [71]. In this context, ethnography acquires methodological relevance by focusing on understanding everyday practices and the meanings that people attribute to them, understood as the description of social life from the perspective of its own actors [72]. This approach helps to highlight socio-spatial dynamics that are often ignored and to avoid the exclusion of local experiences in transformation processes [73].
Thus, the participatory-ethnographic process is configured as a methodological alternative that enables communities to build comprehensive knowledge of their territory and to collectively decide how to inhabit it [74]. Trust, based on active listening and sustained presence, is essential for mediating conflicts, strengthening local capacities, facilitating the co-design of interventions, and consolidating community leadership in the regeneration of their environments [70,71]. In addition, participatory governance models in land management within biosphere reserves are growing in importance, especially in collaborative decision-making processes that integrate multiple actors and knowledge systems [75].

1.2. Objective of the Article

The article proposes to analyse the process of applying the regenerative and participatory design methodology in a community within a Biosphere Reserve context, analysing the process itself, addressing it from the framework of regenerative thinking, concluding with a discussion of the results obtained with the application of the methodology, reflections and critical conclusions, so contributing methodologically by articulating regenerative understanding of place framework with systemic design tools and participatory co-design processes to support governance and regeneration strategies in biosphere reserve contexts.

2. Materials and Methods

2.1. Methodological Framework

Based on the Regenesis Group “understanding of place” methodological framework [44], which functions as the integrative methodological structure that articulates the theoretical perspectives presented in the previous section, regenerative understanding of place involves recognising each territory as a unique dynamic entity, where community and environment form an interdependent system. This process is structured using nesting scales, which reveal the interrelationships between the different levels of the system. Comprehensive assessment enables the identification of emerging core patterns within ecological, socio-economic and cultural systems. Given the complexity of these relationships, data systematisation is required using tools such as the Matrix of Influences [76] to identify the essential patterns in each place. Achieving this regenerative understanding of place enables addressing problems from a systemic perspective and defining the regenerative role of the site, establishing nodes and activation principles that drive co-evolutionary and regenerative processes between community and territory [44]. Regenerative development provides the study’s orientation, while systemic design provides analytical tools for interpreting complex socio-ecological relationships. Participatory methods reinforce inclusion and collective agency [77], integrating dialogue, technical and practical knowledge [78,79] and micro-ethnographic tools [80,81]. Participatory design and ethnographic approaches support the collaborative production of situated knowledge with the community. The Understanding of Place framework, Regenerative development, systemic design, Participatory design and ethnographic methods, inform the research phases and the selection of methodological tools used throughout the study.
The application of the regenerative design framework and the Regenesis Understanding of Place framework in the context of biosphere reserves offers a methodological contribution by linking the regenerative understanding of place with the participatory governance [48] proposed by the biosphere reserve model. This approach helps reveal socio-ecological relationships and potential activation nodes, thereby favouring adaptive management of reserves in line with territorial dynamics and community-driven regeneration [44].

2.2. Methodology

The methodology, based on the Regenesis Group framework [44], consisted of seven phases, and operationalises the theoretical perspectives described in the previous section through a sequence of research and design phases and subphases (sub-phases that could also be understood as activities within the phases): (1) Phase 1, definition of Place, which first develops the selection of the empirical Project or Object of this research, then defines the scales of the nesting system; (2) Phase 2, regenerative understanding of the place, through a first sub-phase of (2.1) documentary analysis; sub-phase 2 (2.2) ethnographic and participatory work, from a critical regionalism perspective; sub-phase 3 of (2.3) Systemic analysis + map of actors, to discern essential patterns and territorial vocation; sub-phase 4 (2.4) Essence, potential and vocation of the place; Sub-phase 5 (2.5), identification of activation nodes, leverage points of the system, consistent with previous findings, within specific strategic lines; (3) Phase 3, co-design of regenerative intervention proposals; (4) Phase 4, micro-actions to promote ecological and local community development (Figure 2). These phases integrate systemic analysis, participatory ethnography, and regenerative design principles to structure the research process and guide tool selection at each stage.

2.2.1. Phase 1: Definition of Place and Participation

The work was carried out during the semesters from February to June 2024 and February to June 2025 at the School of Architecture, Art and Design of the Tecnológico de Monterrey, as part of the natRural lab programme and the national Living Regenerative Laboratories initiative, and in collaboration with the community of San Gaspar, Ejido La Barranca, located within the Sierra Gorda Biosphere Reserve, Mexico. The participatory process included 50 activities and workshops across more than 15 visits.
The work was carried out mainly with two large groups of community members: (1) on the one hand, work was carried out under the auspices of the ejido’s board of directors, mainly with adults, in the ejido house, within the ejido assembly, composed of 45 ejido members, with irregular participation, with some of the 400 residents, with an average participation of between 15 and 30 people in the different workshops held; (2) on the other hand, we worked with a group of mothers and fathers, mainly mothers, about 20 mothers and 1 father of the ‘República Argentina’ primary school, located in the community of San Gaspar within the Ejido La Barranca, as well as with the teachers of this school, together with more than 50 children between the ages of 6 and 12. Prior to working with children aged between 6 and 12, permission was requested and obtained from their parents. The call for workshops was made by invitation through the ejido board and the chair of the mothers’ committee. Key actors such as community leaders, teachers of the primary school and parents where very important for recruiting the people to the workshops and establishing a close relationship.
We worked with two groups of students, 14 and 12 students, in the semesters from February to June 2024 and February to June 2025, with a group of 8 and 9 teachers and researchers, respectively. The training partner was the management of CONANP (National Commission for Protected Natural Areas) of the Sierra Gorda Biosphere Reserve, and the collaborating partner was CONAFOR (National Forestry Commission).
The Sierra Gorda Biosphere Reserve (RBSG), located in Querétaro, covers 383,567 ha (≈33% of the state) and is the tenth largest protected area in the country [82,83]. Its mountainous terrain (300–3100 m above sea level), limestone substrate, and karst morphology generate high geomorphological complexity and climatic gradients that favour great ecosystem heterogeneity [84,85]. It is home to lowland forests, temperate and mesophilic forests, endangered species, endemism and 48% of well-preserved forests, which are important for carbon capture [86]. It forms part of the Pánuco River basin, which includes 25 bodies of water that are strategic for biodiversity and water security, although they face degradation [87]. It is organised into core zones (6.5%) and buffer zones [84].
It is the most populated BR in the country (95,755–105,785 inhabitants), with a rural and indigenous Pame (Xi’iui) and Otomí population, high levels of poverty and migration [88,89,90]. The economy is concentrated in traditional agricultural activities, complemented by handicrafts, services and tourism, along with agroecological and reforestation practices [83].
Its scenic attributes have promoted ecotourism as a source of income and conservation; however, the concentration of services and the growing influx of visitors require planning and regulation. Educational and responsible tourism is proposed as a strategy for socio-environmental balance [82,83,91].
The BR protects traditional knowledge about the use of biodiversity [92,93,94,95]. The erosion of this knowledge, linked to migration and changes in production, compromises biocultural conservation [90,96,97].
Community participation and local ecological knowledge, together with the support of civil organisations, are central to inter-institutional management and coordination [83,98,99]. Taken together, the RBSG constitutes a socio-ecological laboratory for integrating conservation, well-being and territorial sustainability.
The La Barranca ejido is located at the highest point of the RBSG, at an altitude of 2800 m above sea level, in a temperate forest setting with a temperate climate, cold, dry winters and mild, humid summers.

2.2.2. Phase 2: Regenerative Understanding of Place

Documentary Work and Academic Work, Subphase 2.1
An iterative, recursive process was carried out to understand the place’s narrative from a critical bioregionalism perspective, complemented by ethnographic and participatory approaches. According to Martino (2005) [100], bioregionalism represents a new scientific perspective on the relationship between human communities and their natural environments. From a critical and regenerative stance, this study examined nine ecological, social, and cultural subsystems, drawing on academic sources and official data (INEGI, Open Data Portal), bibliographic research, interviews with experts, and with the support of digital tools such as QGIS for the development of a cartographic atlas for analysis.
Participatory Process, Social Mapping and Ethnography, Subphase 2.2
During the FJ2024 and FJ2025 semesters, the participatory process included activities and workshops to understand the area’s social, political, and cultural dynamics. In the case of the community of San Gaspar, in the Ejido de la Barranca. Activities such as ‘community mapping’ and the ‘traffic light’ workshop helped to capture residents’ perceptions of their environment, identifying what they value and the challenges they face.
Activities such as community mapping and the traffic light workshop were designed to identify local values, needs, and challenges.
Playful dynamics and open dialogues foster trust, collective expression, and territorial understanding rooted in everyday experience.
The contributions of children, in particular, were designed to reveal hopeful visions for the future and emphasised the importance of incorporating community perceptions into regenerative and participatory design processes.
With spaces for dialogue and initial dynamics, the first visits to the primary school fostered a deep connection with the community through participatory and ethnographic activities. It was essential to build trust to understand the territory from the perspective of its inhabitants. The initial dynamics with the children included games and playful activities that facilitated connection and collective expression. In addition, meetings were held with mothers and teachers to share experiences and reflections, revealing their fundamental role in building the social fabric and community management.
The set of activities, workshops, and tools is summarised in Figure 3, which facilitated communication and fluid information, with workshops such as ‘community mapping’ and ‘the traffic light,’ which captured participants’ perceptions of their community, identifying what they value, their needs, and the challenges they face. The results, especially from the workshops with children, offered a broad view of the community’s values and challenges, highlighting the importance of considering their perspectives in the regeneration and construction of hopeful futures.
The community was open to dialogue and shared its perceptions through various activities adapted to each participating group: mothers, children, teachers and the ejido council. Interaction with the children was facilitated through games and recreational activities. At the same time, bonds with mothers and teachers were built through spaces for listening and mutual recognition, revealing commonalities and strengthening the community’s social fabric. Experiences and reflections were shared, gradually intertwining, revealing commonalities, and strengthening a sense of community.
This created a space for dialogue that not only provided information but also fostered bonds of trust and collectivity. The participation of mothers was central to understanding the territory from a care perspective. Their stories and practices enabled the identification of everyday cartographies linked to school routes, water management, the use of community spaces, and the organisation of domestic and collective life. This knowledge, often excluded from technical assessments, revealed a situated understanding of the territory based on experience, affection, and daily responsibility for community well-being.
Likewise, the active involvement of children allowed the territory to be projected from an expanded temporality, linking the present and the future. Their contributions not only enriched the creative process but also highlighted the need to design from the perspective of the right to play, exploration, and direct connection with nature, recognising children as territorial subjects and active agents in the regeneration of the forest and the community.
In addition, tours were conducted, significant sites were surveyed, and field mapping focused on existing infrastructure and equipment. This work was complemented by data analysis and cartographic work at different scales, which helped identify key points within the community.
Intergenerational dialogues and ecosystem memories are also included, restoring the historical relationship with ecosystems and fostering awareness and motivation for regeneration across generations. Other ethnographic tools used include semi-structured interviews, drawing workshops, field trips, photo shoots, and accompaniment in everyday activities.
Figure 4 compiles all the tools and activities carried out in the participatory and ethnographic process for the regenerative understanding of the place.
Map of Actors, Gigamap and Systemic Analysis Based on Pattern Reading, Subphase 2.3
Within this methodological structure, to guide ethnographic and participatory work (Figure 5), systemic design tools such as stakeholder maps and gigamaps are used to translate the regenerative understanding of place into visual and analytical representations of socio-ecological relationships. The stakeholder map is developed to analyse the systemic relationships between stakeholders. These are classified as: social actors, such as citizens, users and community organisations; non-human actors, including other animal and plant species and ecosystems; economic actors, such as businesses and industries; and institutional actors, which encompass various levels of government (national, state and local), as well as public policies and regulatory frameworks. This comprehensive approach facilitates understanding of the interactions and dynamics that shape the territory, offering a holistic view of how it functions.
Within the framework of Systemic Design and System-Oriented Design (SOD), gigamaps and stakeholder maps are fundamental tools for addressing the complexity of socio-ecological systems and facilitating co-creation processes among multiple stakeholders. Both methodologies allow design to shift from linear approaches to relational, situated and non-reductive readings of territories and their dynamics, as Jones (2023) [65] points out.
Gigamapping is conceived as a central practice of research through design (Research through Design, RtD) and as a reflective artefact that acts as a ‘bridge’ between different types of knowledge and scales. Through extensive and non-linear visual representations, gigamaps allow us to visualise relationships, dependencies and tensions within complex systems, integrating social, ecological, economic and cultural dimensions (Figure 6). Their main contribution lies in fostering relational understanding by bringing together diverse perspectives on interconnected issues and desired futures, and in promoting critical reflection among participants on their roles within communities and ecosystems. They are generally developed in collaborative ‘visual dialogue’ workshops, in physical or digital formats. They can evolve from an initial mapping of problems to the identification of strategic points of intervention.
For their part, stakeholder maps are used in the system framing stage [65] to identify who comprises the system and how they relate to one another. Beyond a simple list, these maps place people, organisations and institutions within social and ecological structures, highlighting power relations, knowledge flows and qualities of interaction. They are particularly relevant for recognising visible and invisible actors, as well as for incorporating non-human agents—such as ecosystems or future generations—as active participants in the system. Their applications are usually structured at different levels, which makes it easier to define the project’s scope and understand its multiple scales.
In practice, stakeholder mapping is often the starting point for the gigamap: while the former defines who is involved, the latter delves into how and why these relationships are configured, integrating quantitative data with narratives, lived experiences and situated knowledge from the community.
According to Mang and Haggard (2016) [44], environmental issues must be addressed within the specific biosociocultural contexts of each territory, understood as living and evolving systems. This perspective poses the challenge of recognising and reading patterns, a process called pattern literacy, which facilitates understanding of the uniqueness of places. Pattern literacy allows us to recognise territorial uniqueness through three fundamental types [9]: nested system patterns, interaction patterns and essence patterns. Mang (2020) [47] proposes using graphic representations, such as the Gigamap, to visualise the system’s defining elements and their interrelationships.
In this work, the Gigamap was used as a systemic analysis tool that integrates ecological, social, cultural dimensions [70,71]. Simultaneously, a stakeholder map was developed to illustrate the relationships among stakeholders, organised by their level of local knowledge and decision-making power, and to highlight the interconnections between stakeholders and specific issues. The resulting Gigamap was subsequently validated collaboratively with the community. Both tools were first created in physical form and then in digital format.
There are three fundamental types of patterns for this discernment [9]: (1) Nested system patterns, which show how smaller systems are integrated into larger ones, with systemic health depending on the interrelationships between scales; (2) Patterns of interaction, which reveal the flows of information and mutual influence between living systems; and (3) Patterns of essence, which allow the distinctive character of a place to be identified.
Essence, Potential and Vocation of the Place, Subphase 2.4
The regenerative understanding of the place culminated in the identification of its essence, vocation, and potential [70]. The essence, described by Alexander et al. (1977) [101] as ‘the nameless quality,’ forms the basis of the identity upon which regenerative design is built [44]. Its discovery is based on narrative research and community participation [47]. Vocation guides action towards collective well-being [44], while potential is defined as the capacity to generate systemic health over time [47]. Participatory activities collectively validated and deepened these findings [70].
This understanding of the place, based on the collective discovery of its essence, vocation, and potential, guides the identification of nodes and activation principles that support co-evolutionary and regenerative processes, enabling the prosperity of the place and its community [70].
In the search for the essence, vocation, and potential of the community of San Gaspar, various participatory validation activities were carried out, allowing the community to actively provide feedback on the findings and deepen the collective perception that was emerging.
Identification of Activation Nodes, Subphase 2.5
After the phase of regenerative understanding of the place, its essence, vocation and potential are discovered, which defines the uniqueness and appropriateness of the proposed activation nodes. These are understood within a system represented and understood through the gigamap, and supported by the actors identified through the actor map.
From a systemic perspective, regenerative work drives transformation through interventions with multi-scale impact [44]. Activation nodes act as leverage points that channel energy and information, promoting co-evolutionary processes [71]. Their identification, through participatory workshops, emerged from community validation of the place’s essence, vocation, and potential.
From a systemic perspective, regenerative work seeks transformation through interventions with positive multiscale impacts [44]. Activation nodes act as points of support through which energy and information flow, promoting co-evolutionary processes [70].
The identification of nodes arose from the observation and participatory validation of the place’s essence, vocation, and potential, highlighting latent opportunities within the community [70] through a participatory workshop.

2.2.3. Phase 3: Co-Design of Intervention Proposals

Regenerative design was developed in collaboration with the community, integrating landscape, ecological, socio-economic and cultural dimensions. The role of the designer evolves into that of an adaptive facilitator, within a recursive process encompassing conceptualisation, ideation, prototyping, and community validation [70].
During the co-design phase, collective imagination was promoted through participatory activities—drawings, collective constructions, and territorial tours—that revealed the community’s emotional and functional links to its environment. The participation of children brought fresh and creative perspectives, strengthening understanding of the place and generating contextualised solutions. This process required flexible planning, tailored to different user types and built on prior bonds of trust.
The design culminates in a portfolio of proposals validated and prioritised by the community, whose implementation depends on its resources and interests.
Regenerative interventions, although small, generate positive systemic impacts [70]. Currently, evaluation indicators and a community monitoring plan are being developed to ensure the autonomy, management, and sustainability of the process, maintaining contact with the community after the conclusion of the above-described activities, and considering next steps. As this is currently in progress, it could not be incorporated into the article in a conclusive manner.

2.2.4. Phase 4: Implementation of Activating Micro-Actions

The micro-actions marked the culmination of the participatory co-design process, acting as catalysts for the respective programmes of the co-created proposals and the implementation of collectively validated community strategies. These interventions, developed with minimal resources and local management, actively involved groups such as primary school mothers, promoting community cooperation and validation.
Their implementation strengthened collective identity, sense of belonging, and self-management capacity, consolidating collaboration as the foundation for the regenerative transformation of the territory. The micro-actions were understood as the culmination, in the form of gratitude, of the students and teachers’ appreciation for the community’s time, energy, and interest throughout the regenerative and participatory design process.

3. Results

3.1. Understanding of Place, Phase 2 (Subphase 2.1 and 2.2)

A regenerative understanding of the place was developed through documentary and bibliographic research, which led to the creation of a cartographic atlas integrating ecological subsystems—hydrology, climate, geology, biology, and natural phenomena—along with socio-economic subsystems (demographics, infrastructure, services, activities, and economic potential) and cultural subsystems (history, values, education, traditions, and beliefs). This comprehensive framework enabled the identification of relationships and interdependencies among the subsystems, revealing territory’s integrated network.
Twenty participatory and ethnographic activities enriched territorial knowledge through multiple voices and scales. The active participation of mothers, teachers, and children was fundamental to building a situated understanding, generating valuable results such as species catalogues, infrastructure maps, local cartographies, and spatial studies, all of which serve as a basis for future interventions.
Icebreaker workshops facilitated initial engagement, and workshops with children highlighted the lack of public and recreational spaces and their strong connection to the natural environment. Through drawings, graphic surveys, and playful activities, participants identified key values—such as nature, forests, and wildlife—as well as a desire to play and socialise, which strengthened bonds between participants and researchers.
Community mapping activities, including the traffic light exercise and the water mapping workshop (Figure 8), revealed local priorities, challenges and spatial perceptions, emphasising the importance of forest conservation and the need to improve water collection and purification systems. Other activities, such as collective conversations, memory trees, emotional thermometers, and forest immersions, captured collective memory, emotions, and emotional ties to the territory (Figure 7). At the same time, regenerative storytelling encouraged children’s active participation. Interviews and surveys complemented the diagnosis with quantitative and qualitative data on forest use, ejido dynamics, and urban composition, consolidating an integrated analysis of the natural and social context of San Gaspar.
Figure 7. Activity in the forest with children from the primary school.
Figure 7. Activity in the forest with children from the primary school.
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Figure 8. Outcome of the “Water Mapping” workshop with children and mothers from the primary school.
Figure 8. Outcome of the “Water Mapping” workshop with children and mothers from the primary school.
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3.2. Systemic Analysis Through Pattern Reading and Actor Map, Subphase 2.3

The stakeholder mapping (Figure 9) tool proved extremely useful in understanding and organising the various stakeholders and agents that make up the community, and for understanding people’s perspective on these actors and how they influence the place. These actors range from organisations, institutions and government entities—such as the Mining Law, SEMARNAT and CONAFOR—to key individuals within the ejido, such as Alonso, either because of their relevance in decision-making or because of their daily relationship with neighbours and their daily impact on the community, as in the case of Ana de Aguas.
Actors who served as fundamental agents of change were natural elements, such as forests, which were found to be of great importance and considered defining elements of community life. Finally, the importance of those actors who contribute essential knowledge and insights for understanding the community was recognised, particularly older adults and their wisdom. The actors map helped visualise key actors with high knowledge in the community who were constrained by their lack of power, as well as the very strong influence of actors whose involvement and understanding of the place were very low. The format proposed by Jones (2023) [65] was used as a basis, with some variations in levels and scales.
Using Gigamap, all the results, findings, and conclusions from the documentary and participatory ethnographic phases were visualised in an integrated manner. This tool revealed patterns of relationship, nesting, and essence, enabling discussion and identification of the site’s essence, potential, and vocation. The actors map complemented this analysis by visualising the key stakeholders whose participation would be essential to initiate a regenerative, co-evolutionary transformation.
The Gigamap includes defining elements of the cultural, ecological, and socio-economic systems, as well as the main actors in the community, to achieve a comprehensive, systemic understanding of the place. In this sense, when talking about nesting scales and trying to capture as much information as possible within the sphere of interest—that which affects or is directly related to the Sierra Gorda Biosphere Reserve—key elements, such as sustainable forest management and both national and international practices, are linked to the ecology of care for a living forest.
Scaling down, within the sphere of influence, directly related to and located within the reserve, the influence and relevance of elements such as migration and lack of economic diversity which affect the population culturally and socio-economically appear within a network of economic challenges; care for nature, management and awareness of water as a fragile and unstable resource; are also elements that weigh on the entire system and its parts, shapping the way of life of their inhabitants.
At the micro-basin level, within the sphere of control, mining activity, intergenerational knowledge transfer, bark beetles, women charcoal burners, and the role of ejidos in communities demonstrate the direct influence that large-scale elements exert over people.
Finally, within the project sphere, where the focus is specifically on the community of San Gaspar, the gigamap (Figure 10) is broken down, and the relation with natural environment, ejido tensions and the daily life of its inhabitants are shown as correlations of both outer and mid-scale factors that influence all aspects of the place, and they represent the community’s involvement and impact on the entire system.

3.3. Essence, Vocation and Potential, Subphase 2.4

The participatory validation of San Gaspar’s essence, vocation, and potential enabled the collective construction of a representative definition of community identity. Reflections on collective aspirations, ancestral memory and visions of the future consolidated the foundations of identity and strategic orientations. At the same time, children’s perceptions enriched the regenerative projection of the territory through their emotional and imaginative vision.
The following definition of essence (Figure 11) was collectively agreed upon: ‘San Gaspar has forged its rebellious spirit in the face of external challenges, preserving its inner wealth, defending its customs and its relationship with the environment. With cold winds and a sea of welcoming mountains as a backdrop, its people remain resilient, safeguarding their territory and their way of life.’
The collaboratively defined vocation states: ‘San Gaspar cultivates a life of autonomy and harmony with nature. Through sustainable practices and knowledge sharing, the community regenerates its environment, fostering a vocation focused on preserving biodiversity and the traditions that give identity to its territory.’
The potential of the place (Figure 12), articulated collectively, states: ‘The potential of San Gaspar lies in its natural wealth and the strength of its community. Its forests, springs and traditional knowledge are seeds for territorial regeneration. This combination strengthens local identity and projects a sustainable and resilient future.’

3.4. Identification of Activation Nodes, Subphase 2.5

Strategic lines and activation nodes were defined and validated (Figure 13), Figure 14 ensuring that the working guidelines were recognised and appropriated by the community through collective feedback. The workshops revealed strong emotional ties to nature, a sense of responsibility towards ecosystems, and intergenerational aspirations. Faced with challenges such as water scarcity and a lack of public spaces, the community collectively shaped strategies aligned with its defined essence and regenerative potential.
The activation nodes identified in the work carried out during 2024 and 2025 arise from the seven strategic lines developed together with the community. These lines bring together actions aimed at responding to the needs and activating the potential of the territory, either by strengthening the relationship with the environment, as in ‘Memories of Water’ and ‘Reconnecting with Nature,’ or by promoting development and sovereignty processes, such as ‘Forest Economy’ and ‘Food Sovereignty.’
The activation nodes are defined based on these strategic lines. Some of them derive directly from a particular line, such as ‘Water Culture’ and ‘Community Gardens’; others emerge from two or more lines, such as ‘Nature as a Source of Health’ and ‘Generational Exchange’.
In total, the 22 nodes identified serve as guiding principles for the projects to be proposed, ensuring that each proposal remains consistent with the essence and potential of the place, and contributes to the generation of points of change and regenerative development.

3.5. Co-Design Phase, Phase 3

The co-design process strengthened the project proposals through the active participation of mothers, teachers, and children of various ages, integrating their habits, needs, and spatial perceptions [70]. With the mothers, interventions were tailored to their customs, while the children’s perceptions informed the design of outdoor play areas, cosy interiors, and playful educational environments, promoting direct interaction and family bonding with the spaces.
The co-design workshops served as catalysts for the project’s potential, deepening the bond with the community and valuing local knowledge, such as the uses of medicinal plants and children’s play preferences. The identification of desired elements in green areas, including nature, games, and animals, enabled the design of meaningful spaces that reflect identity, foster creativity, and strengthen the bond with the territory.
Likewise, the positive and negative aspects of the proposals were analysed, incorporating criteria such as colour, materials and diversity of uses. Spaces with potential for intervention were identified, such as green spots and rest areas, and reflections were developed on environmental and educational concerns, as well as access to services, including water management strategies to promote an independent network. This approach integrated community knowledge, children’s creativity and technical criteria, ensuring a contextualised and participatory design.
After defining the strategic lines, each activation node guided specific architectural and landscape interventions aimed at community and environmental regeneration:
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‘Experiential Education’ (2024) proposed an intervention in the ejido house to create a community gallery for the sale, exhibition and relaxation of the entire community, with spaces for children’s play. In addition to a complex of workshops in the forest for learning and teaching, activities such as weaving, carpentry and handicrafts are proposed.
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‘Water Regeneration’ (2024) proposes comprehensive water management in the community, placing the primary school at the centre of its intervention, with the implementation of a system for water collection, treatment, interaction and storage using systems such as rain ponds, wetlands, a pavilion and landscape interventions for the creation of medicinal and edible gardens.
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‘Living Connections’ (2024) works around public space, proposing an intervention in the ejido house to convert it into a centre for administration, commerce, leisure, play and learning in the community, as well as cleaning the pot through a chinanpas system and reactivating the community house. Finally, a landscaping intervention on the ‘maguey path’ that connects these two points in the community.
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‘Food Sovereignty’ (2024) proposed the creation of a centre where food is produced, stored and managed, based on a water management system called ‘water for life’, where a community dining room, a greenhouse, vegetable gardens, play areas and an edible forest are developed around this water collection and storage system for the development of these crops. Seeking to promote community food sovereignty.
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‘Memories of a Living Forest’ (2024) proposed the rehabilitation of the sawmill for the development of the ejido forest economy. In addition to forest and water routes, both with different interventions such as cabins and contemplation and rest points, both for community use and as a potential tourist attraction. Recognising the routes already mapped out.
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‘Memories of Water’ (2025) proposed the renovation of the primary school and teachers’ residence, the construction of a community washing area, and the improvement of a path to the mainstream, including a recreational space, to re-establish connections—especially between mothers and children—with water as a cultural, ecological, and social resource.
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‘Encounters in the Forest’ (2025) proposed expanding the school and teachers’ housing, incorporating outdoor classrooms, a forest library, and improved play areas, thus promoting the integration of nature-based education.
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‘Flavours of the Earth’ (2025) consisted of a series of interventions at the La Olla reservoir to implement a water management system that would support regenerative agriculture, complemented by a cooperative shop and a public space called ‘Living Landscape,’ which promoted community resilience and food sovereignty.
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‘Living Pharmacy’ (2025) designed a forest therapy trail along Peña Blanca, with spaces for reflection, education and reconnection with nature, as well as a living pharmacy that promotes intergenerational co-creation, traditional knowledge and the use of medicinal plants.
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‘Weaving Knowledge’ (2025) proposed interventions in the primary school and the ejido house, revaluing them as spaces for collective learning, care and territorial management, incorporating an edible forest and regenerative agriculture practices, and positioning community participation as a driver of social and environmental regeneration.
The collaborative design process (Figure 15) reinforced these proposals, (Figure 16) through to the active participation of the ejido council, mothers, teachers, and children, integrating daily habits, needs, and spatial perceptions. Workshops with mothers adapted the interventions to their customs, while children’s contributions served as the basis for the design of outdoor play areas, welcoming interiors, and interactive learning environments that encourage family and community participation. Local knowledge, such as the use of medicinal plants, was incorporated along with children’s play preferences and symbolic references to nature, animals, and games, reflecting identity and attachment to place.

3.6. Implementation of Micro-Actions, Phase 4

A micro-action was collaboratively developed for each proposed project, which involved implementing their respective programmes by integrating memory, play, knowledge, and care for the environment.
  • ‘Memories of Water’ framed the stream with a living installation and a swing.
  • ‘Weaving Knowledge’ created a collective mural representing the community’s memories.
  • ‘Encounters in the Forest’ built a woven wooden structure for community use.
  • ‘Living Pharmacy’ collected and catalogued native plants.
  • ‘Flavours of the Earth’ implemented a chinampa in the La Hoya reservoir, promoting sustainable agricultural practices and water conservation.
The implementation of these micro-actions (Figure 17) represented a moment of connection, celebration, and tangible realisation of the co-creation process. Through co-design and approval workshops, intergenerational teams of adults and children were formed to manage tools and resources, fostering active, inclusive, and collective participation. These interventions strengthened community identity, sense of belonging, and the viability of developing independent projects from within the community.

4. Discussion of Results

4.1. Reframing the Designer’s Role

The participatory process highlighted the de-hierarchisation of the designer’s role. The designer acts as a facilitator of a recursive, iterative process. This process integrates multiple actors in constant interaction. This approach aligns with participatory and regenerative design frameworks [71]. The initial hypothesis was a flexible starting point. The project only makes sense when the community is the protagonist. Co-creation guarantees deeper, more lasting, and regenerative solutions, as outlined in regenerative development and co-evolutionary principles [7].
The methodology encourages open discussion and avoids predefined agendas. It ensures that community perceptions guide outcomes and decisions. This recursive, iterative approach redefines the designer’s role as a facilitator who integrates multiple actors.
A wide variety of workshops, participation, validation, and co-design activities were conducted. Various actors were included, such as children, educators, mothers, and ejido power figures. These activities model multi-stakeholder governance in socio-ecological systems [75].
The methodology was adapted and adjusted to ensure the safe and inclusive participation of individuals. This process generated enriched results. These results served as the basis for proposing the essence, vocation, and potential of the place.

4.2. Co-Design, Participation, and Collective Learning

The co-design workshops enabled the development of comprehensive proposals tailored to community habits, needs, and dynamics, creating environments consistent with San Gaspar’s cultural and social identity.
The active participation of residents strengthened their sense of ownership. Including diverse perspectives promoted an inclusive, representative, and context-sensitive design. The spaces were co-designed with user’s habits and preferences in mind, ensuring each proposal reflected the community’s vision and experience.
Immersion workshops in the forest allowed children to experience nature firsthand, while mothers recalled intergenerational memories, underscoring the importance of intergenerational connections to the natural environment.
Drawing proved to be an effective tool for expressing emotions, ideas, and perceptions beyond words. It fostered imagination, creativity, and openness to new perspectives. This was true for both children and adults, reinforcing participatory knowledge production methods [71].
The implementation of micro-actions consolidated the process. These actions functioned as gestures of gratitude and as catalysts for future programmes. They demonstrated the community’s self-determination and commitment to improving their environment. This aligned with nodal interventions and leverage points [65]. These actions also fostered collective learning through shared practice. Community participation was reaffirmed as the driving force behind regenerative design.

4.3. Systemic Desing Tools

Tools such as stakeholder maps and gigamaps were indispensable. They synthesised information, fostered collaborative understanding of place, and clarified the system’s elements. The transformative potential depends on interpretations and proposals for activation nodes that emerge as the system takes shape.
This case study confirms the value of regenerative design approaches. Participatory design is expanded through a regenerative approach. This approach focuses on solving local problems and on identifying the essence, vocation, and potential of the place. Methodologically, it proposes articulating community participation, systemic analysis, and place-based regeneration. This strengthens the shift from sustainability towards regenerative approaches [10].
Systemic design tools enable communities to collectively interpret socio-ecological complexity and identify relationships. They help reveal connections among actors, ecosystems, and cultural practices, aligned with systems thinking [61]. These tools and the regenerative process link participatory design with the identification of activation nodes. They can generate broader regenerative changes and processes in the community and territory, as systemic strategies [65].
The study contributes methodologically by integrating regenerative place-based analysis with systemic design tools and participatory co-design processes. This is the academic innovation value, beyond the empirical findings. This articulation offers a practical approach for interpreting socio-ecological complexity. It also supports collaborative governance in biosphere reserve contexts.

5. Conclusions

Regenerative and participatory design is conceived as a living process in which memories, relationships and nature are intertwined, and in which each action arises from an ongoing dialogue with the community. For example, exploring water culture through collective mapping revealed that this resource is not only understood in technical terms but also felt, cared for, and remembered, reflecting the place’s history and identity.
The experience demonstrated that participatory processes and co-design generate more sensitive, inclusive, and sustainable projects, strengthening community identity, ownership, and ecological resilience. Regenerative and participatory design allows us to understand the place not only as a setting, but as a living space that facilitates experiences, memories, and relationships.
Regenerative design, based on memory, collective creativity and interaction with the environment, proves to be an effective strategy for rebuilding links, restoring ecosystems and projecting fairer and more sustainable futures, placing life and community at the centre of action. It invites designers to reconsider their role, recognising and empowering local cultures that foster interdependence between communities and ecosystems, a phenomenon that manifests uniquely in each territory.
Experience has shown that participatory processes and collaborative design generate more sensitive, inclusive and sustainable projects, strengthening community identity, ownership and ecological resilience. Active listening to local narratives allows us to identify genuine problems and develop contextualised solutions, fostering collectively built, resilient and regenerative futures. Women and children emerge as active agents whose knowledge, creativity, and memory enrich projects that integrate community and nature.
Regenerative design invites us to constantly ask ourselves, ‘Who are we as designers?’ Understanding that our work is not only to solve technical problems, but that our practice must be based on regenerative thinking. This implies recognising and promoting regenerative cultures, understood as ways of life that care for the links between communities and ecosystems, which manifest in unique ways in each territory. Regenerative cultures are expressions of their bioregions, in this case, of the Biosphere Reserve, and only through dialogue with those who inhabit these places can their memories, traditions, and potential be revealed. It is in the listening that we find the local narratives that allow us to truly recognise the place.
As last conclusion, we must reflect on the limitations that may arise in the development of the participatory process when it is articulated from the position of a group of researchers, teachers, and students who are external to the community, who guide the process without being fully part of the community itself, and who deal with certain power dynamics without being able to isolate the process from these same dynamics.

Author Contributions

Conceptualisation, C.C.; methodology, C.C., M.V. and G.E.C.-S.; software, A.R.-M., M.V. and G.E.C.-S.; validation, C.C., M.V. and G.E.C.-S.; formal analysis, C.C., M.V. and G.E.C.-S.; investigation, C.C., M.V. and G.E.C.-S.; resources, C.C.; data curation, C.C., M.V. and G.E.C.-S.; writing—original draft preparation, C.C., M.V., G.E.C.-S., A.R.-M. and L.M.G.-C.; writing—review and editing, C.C., M.V., G.E.C.-S., A.R.-M., L.M.G.-C., D.B.A.-L. and M.C.-C.; visualisation, M.V. and G.E.C.-S.; supervision, C.C.; project administration, C.C.; funding acquisition, C.C. All authors have read and agreed to the published version of the manuscript.

Funding

This research was funded by Tecnologico de Monterrey through the ‘National Grant’ funding scheme, agreement number N/A, under the “2025 Crowdfunding-TEC call for proposals: Ejido de la Barranca”.

Data Availability Statement

The raw data supporting the conclusions of this article will be made available by the authors on request.

Acknowledgments

The authors would like to acknowledge the support of the School of Architecture, Art and Design, its departmental, divisional, and research management, and the regional and national deans. They also wish to acknowledge the communities with whom they have been working in the La Barranca Ejido, without whom this article could not have been written and would lack meaning, as well as the management of CONANP of the RBSG and CONAFOR, Querétaro office. During the preparation of this manuscript/study, the authors used ChatGPT (2026) for the purposes of Style review, Deepl Write Pro (2026) for the purposes of translation and Grammarly Pro (2026). The authors have reviewed and edited the output and take full responsibility for the content of this publication.

Conflicts of Interest

The authors declare no conflicts of interest.

Abbreviations

The following abbreviations are used in this manuscript:
BRBiosphere Reserve
RBSGBiosphere Reserve Sierra Gorda
RRRegenerative Responsibility
MABMan and the Biosphere

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Figure 1. Processes that sustain life.
Figure 1. Processes that sustain life.
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Figure 2. General Workflow diagram.
Figure 2. General Workflow diagram.
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Figure 3. Regenerative understanding of place Workflow diagram.
Figure 3. Regenerative understanding of place Workflow diagram.
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Figure 4. Diagram of activities and participatory tools for the regenerative and participatory design process.
Figure 4. Diagram of activities and participatory tools for the regenerative and participatory design process.
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Figure 5. Participatory workshop at elementary school.
Figure 5. Participatory workshop at elementary school.
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Figure 6. Work on Gigamap and Stakeholders’ map.
Figure 6. Work on Gigamap and Stakeholders’ map.
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Figure 9. Actor Map.
Figure 9. Actor Map.
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Figure 10. Gigamap.
Figure 10. Gigamap.
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Figure 11. Illustrative collage ‘Essence of Place’.
Figure 11. Illustrative collage ‘Essence of Place’.
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Figure 12. Illustrative collage ‘Potential of Place’.
Figure 12. Illustrative collage ‘Potential of Place’.
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Figure 13. Workshop for the validation of strategies and activation nodes with the ejido council.
Figure 13. Workshop for the validation of strategies and activation nodes with the ejido council.
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Figure 14. Strategic Lines and Activation Nodes.
Figure 14. Strategic Lines and Activation Nodes.
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Figure 15. Collaborative design activity with children at the primary school.
Figure 15. Collaborative design activity with children at the primary school.
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Figure 16. Visual rendering of project proposal.
Figure 16. Visual rendering of project proposal.
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Figure 17. Documentation of micro-action implemented with the community at Arroyo Grande.
Figure 17. Documentation of micro-action implemented with the community at Arroyo Grande.
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MDPI and ACS Style

Cobreros, C.; Villalón, M.; Calle-Sáenz, G.E.; Rivas-Madrigal, A.; Gutierrez-Contreras, L.M.; Arias-Laurino, D.B.; Covarrubias-Castro, M. Regenerative and Participatory Co-Design in Biosphere Reserve Contexts. Land 2026, 15, 542. https://doi.org/10.3390/land15040542

AMA Style

Cobreros C, Villalón M, Calle-Sáenz GE, Rivas-Madrigal A, Gutierrez-Contreras LM, Arias-Laurino DB, Covarrubias-Castro M. Regenerative and Participatory Co-Design in Biosphere Reserve Contexts. Land. 2026; 15(4):542. https://doi.org/10.3390/land15040542

Chicago/Turabian Style

Cobreros, Carlos, Morena Villalón, Gabriel E. Calle-Sáenz, Adriana Rivas-Madrigal, Luis Miguel Gutierrez-Contreras, Daniela B. Arias-Laurino, and Mariana Covarrubias-Castro. 2026. "Regenerative and Participatory Co-Design in Biosphere Reserve Contexts" Land 15, no. 4: 542. https://doi.org/10.3390/land15040542

APA Style

Cobreros, C., Villalón, M., Calle-Sáenz, G. E., Rivas-Madrigal, A., Gutierrez-Contreras, L. M., Arias-Laurino, D. B., & Covarrubias-Castro, M. (2026). Regenerative and Participatory Co-Design in Biosphere Reserve Contexts. Land, 15(4), 542. https://doi.org/10.3390/land15040542

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