Multidirectional paths to achieve the SDG-13 from Mexican universities:
interdisciplinary, sustainable lifestyles and green technology
ODS 13 en las universidades mexicanas: los caminos multidireccionales para
lograrlo
Lorena del Carmen Álvarez-Castañón[1], Pilar
Arroyo-López[2],
Daniel Tagle-Zamora[3]
El
objetivo fue analizar las acciones climáticas de las universidades mexicanas
para identificar las rutas que permitan su reorganización estratégica para
contribuir al logro del ODS 13 (acción por el clima). La investigación fue
cualitativa; se analizó y categorizó por frecuencias de co-ocurrencia
la experiencia de educación climática de 15 universidades públicas y privadas
mexicanas, y se analizaron en profundidad 43 iniciativas universitarias destacadas.
Los hallazgos mostraron tres líneas de acción climática: educación
interdisciplinaria, modos de vida saludable y transferencia de tecnologías
verdes. Así, la gestión de la sostenibilidad debe seguir un enfoque transversal
porque las comunidades interdisciplinarias son capaces de institucionalizar
formalmente los tres pilares de la sostenibilidad –social, ambiental,
económica- con base en la colaboración.
Palabras clave: ODS 13, educación
sustentable, acción climática universitaria.
This
paper aimed to analyze the climate actions of Mexican universities to identify
the multidirectional paths that would allow the strategic reorganization to foster
to the achievement of SDG 13 (climate action). The research was qualitative; the
sustainability experiences of 15 Mexican public and private universities were
analyzed and categorized by frequencies of co-occurrence, and 43 outstanding
sustainability initiatives were deeply analyzed. The findings showed three
types of university action (environmental practice, mitigation and adaptation
action). Furthermore, three reinforcing paths of action were identified:
interdisciplinary education, sustainable lifestyles, and green-technology
transfer. Thus, climate action management could follow a collaborative, transversal
and interdisciplinary approach to foster a sustainable ecosystem beyond the
university walls.
Keywords: SDG 13, sustainability education,
university climate action.
JEL: M39, O18, Q56
The social demand to implement national action plans
to advance the Sustainable Development Goals (SDGs) under different economic,
social, cultural, and political contexts has increased (Leal et al., 2020;
Sachs et al., 2019); nevertheless, However, there is a strong challenge to put
into operation specific actions to operationalize the SDGs (McCowan et al.,
2021; Ridhosari & Rahman, 2020). Many documents
have proposed programs to transform productive, social, and public
organizations with a sustainability approach by defining specific actions to
align with the SDGs (UN, 2022; Sachs et al., 2019). One of the most common
strategies is the collaboration between governmental, educational, and private
organizations and civil society to support the sustainable development (Álvarez
& Palacios, 2021; Molthan-Hill et al., 2019). However, the SDGs achievement
requires an integrated network of actors that share resources (e.g., knowledge)
to accelerate the attainment of the SDGs (Álvarez et al. 2023; Leal et al.,
2022).
Although sustainable development (SD) seems to be
mainly the responsibility of governments and private organizations, education
institutions are also accountable for the attainment of the sustainability
development goals (NU, 2022), particularly SDG-4 (Quality Education), but also
SDG-12 (responsible production and consumption), SDG-8 (decent work and
economic growth), and SDG-13 (climate change). Education for sustainability has
emerged as a significant movement in higher education in recent years (Álvarez
et al., 2024; Leal et al., 2020). However, there is enormous variability in how
the agenda for sustainability education has been taken up by individual
institutions partly due to how high education institutions (HEI) conceptualize,
operationalize, and commit to the promotion of sustainability with action
ranging from promoting specific land and resource management processes through
an interdisciplinary perspective (Leal et al., 2022; Holdsworth & Sandri,
2021; McCowan et al., 2021).
This research focuses on how SDG 13 has been
approached by universities given the urgency to mitigate and adapt to the
impacts of climate change. According to literature review, SDG-13 allude to systematize the efforts
to reduce the impacts of climate change -for instance, greenhouse gas
emissions- and to adjust our lifestyle -for example, by reducing the
vulnerability towards hydrological disasters- (Pearson et al., 2021; Fuente et
al., 2019; UN, 2015). Despite the lack of forceful actions and policies to develop
mechanisms for increasing the capacity to effectively plan and manage climate
change (Xiang et al., 2019; Grigoroudis et al., 2016)
among the social (Goldberg et al., 2020) and productive sectors (Mazutis & Eckardt, 2017; Finke et al., 2016), the
intervention of the University to meet the targets of SDG has shown hopeful results (Álvarez et al.,
2023; Leal et al., 2022; McCowan et al., 2021).
The University role in sponsoring climate change
actions is crucial because of its institutional credibility and social
function, and its potential capacity to provide environmental education, raise
environmental awareness, and research capabilities to generate and transfer
green technologies, contribute to strengthening the resilience and adaptive
capacity of communities prone to natural disasters, and propose business models
to recover/preserve land and water resources (McCowan et al., 2021; Pearson et
al., 2021; Reichert, 2019). Social pressure has increased and certainly
influenced universities to implement environmental programs aimed at
contributing to SDG 13 (Álvarez et al., 2023; Chen et al., 2018). According to
Leal et al., (2020), the discussion on education for sustainability in higher
education dates to the nineties; however, the formalization of policies,
programs, and action plans to promote sustainability was consolidated between
2005 and 2014.
The literature reports multiple university's
efforts and experiences to enhance climate action (Sanchez et al., 2021; Zguir et al., 2021; Wamsler, 2019). However, there is an
important gap between the design of curricula and the demands related to
sustainability education, especially those that impact climate change (Chen et
al., 2018). Meaningful learning objectives and contents, and the introduction of
new pedagogic methods that empower learners to include sustainability
principles in their professional careers are required (UNESCO, 2017). Moreover,
the literature shows that sustainability management impacts the practice of
academic communities and their environment because inter-organizational
collaboration generates opportunities for mutual learning, consequently, there
is a greater incidence on the environment (Oke, 2023; Alirez et al., 2022). The
opportunities to strengthen the university climate action are multiples,
therefore, the study of this social phenomenon in Mexico contributes to
understanding how to enhance the participation of universities in
Latin-America.
Successful environmental projects and highly
heterogeneous environmental concerns between communities and socioeconomic
contexts in Mexico were found; however, most these projects have limited
results despite institutional efforts (Álvarez et al., 2024; Fuente et al.,
2019; Montero, 2015). This research acknowledges the University is a key
enabler for sustainability and is capable of supporting
actions against climate change (UNESCO, 2017), and Mexican universities are
pertinent study object because of the Latin American countries are considered a
living lab for research due to their social, cultural, and economic profile (Aguinis et al., 2020). Therefore, this paper aims to
analyze the current state of implementing climate action at Mexican
universities, and how the success of these implementation efforts can be
fostered further to contribute to the achievement of SDG 13 (climate action)
through inter-disciplinary and cooperative projects, institutional programs,
and community practices.
The sustainable perspective of the universities
considers enhancing environmental values, environmental awareness, respect for
megadiversity (Fuente et al., 2019; Goldberg et al., 2020), and the pursuit of
equitable welfare (Zhang, 2020; Chen et al., 2018; Dyer & Dyer, 2017;
Slawinski et al., 2017). Environmental education has had two axes of action: a)
courses or workshops taught in the university's educational programs; b)
university’s practices –such as the design of sustainable buildings and building
of green campuses, among others- (Leal et al., 2022; Molthan-Hill et al.,
2019). The initial focus of these environmental practices is mainly oriented
toward the mitigation of climate change. Moreover, climate actions focus on
supporting the public, social, and productive sectors to fulfill environmental
policies by designing and transferring environmental practices aimed at
reducing the use of resources in productive processes, for example through
circular economy actions (Street et al., 2022; Sharifi, 2021).
Sustainability education and management in
universities has steadily grown with climate action as
one of the key subcategories of environmental sustainability and an emerging
field to be included in the educational programs (Salovaara et al., 2020).
Sustainability education has advanced in four stages. The first one is
educational to supply knowledge, skills and competencies to enable the student
participation in building a sustainable and sustainable futures.
Sustainability has become part of the education programs, from courses and
workshops at the undergraduate level to sustainability science programs (Zguir et al., 2021). The second phase refers to the social
responsibility of universities. Economic, environmental, and social aspects are
included in the university’s internal decisions and operational processes. The
implementation of pro-environmental actions, from the reduction of energy,
water, and waste to the design of sustainable buildings and green campuses are
examples of the university’s environmental responsibility (Wamsler, 2019).
The third is what Arocena and Sutz
(2021) named “social outreach” that acknowledges universities are centers for
research and education with the potential together with other actors to
contribute to regional sustainability through formal, non-formal, and informal
knowledge transfer; increase the environmental awareness, perceived behavioral
control (self-efficacy and perceived control over the performance of behavior)
and consumer effectiveness; and facilitate environmentally friendly behaviors
(e.g. providing proper sites to collect and separate residues) (Sanchez et al.,
2021). Finally, there is the emergent role of transforming directly or
indirectly the social reality through interdisciplinary collaboration with
private, public and social institutions to accelerate sustainable development,
and enable universities to contribute to welfare by economic, environmental,
cultural, and social issues of local and global communities (Álvarez &
Palacios, 2021; Purcell et al., 2019).
Based on the literature review, climate action from
the University was conceptualized as the set of actions directed toward the
preservation of the natural, biocultural, and social environment with a
collaborative approach and a shared vision of a sustainable future (Boyd et
al., 2022; Street et al., 2022; Dube, 2021; Sharifi, 2021; Coscieme
et al., 2020). It is important to highlight that these actions must guarantee
economic sustainability, transcend individual interests, be integrated into the
institutional culture, and the generation of green technologies, business
models, sustainable education, and the reduction of university’s operations on
the environment. Based on the literature review, Table 1 outlines the principal
dimensions of sustainability philosophy and climate action.
Table 1
Dimensions
of the sustainability philosophy and climate action
|
Climate action |
Sustainability |
|
|
Ethical and social perspective driving climate
policies and business models |
Pearson et al. (2021), Sharma et al. (2020), Xiang
et al. (2019), Ritala et al. (2018). |
|
|
The University has a critical role to play in moving society
towards sustainability |
Ridhosari & Rahman (2020), Zhang (2020), Chen et al.
(2018), Dyer & Dyer (2017), Slawinski et al. (2017) |
|
|
Sustained social/community engagement and
research/projects to address climate action |
Karrasch et al. (2022), Leahey & Barringer (2020),
Goldberg et al. (2020) |
|
|
Approach [mitigation or adaptation] [inter or transdisciplinary] |
Boyd et al. (2022), Karrasch et al. (2022), Street
et al. (2022), Dube (2021), Sharifi (2021), Coscieme
et al. (2020). |
|
Source: by the authors.
Based on the above, the
sustainability, the climate action, and the
role of universities are interrelated. Universities have restructured
themselves at different levels to respond to the challenges of economic,
social, and environmental sustainability (Álvarez et al., 2024; Leal et al.,
2022; Arocena & Sutz, 2021). The climate action
(mitigation and adaptation) has been part of this university restructuring,
which is relevant because the universities are crucial in fostering the
collaborative and co-responsible attitudes, and critical thinking in decision
makers (Álvarez et al., 2024; Filho et al., 2023). Moreover, new educational
approaches based on interdisciplinarity and transdisciplinary have been
development to achieve multidirectional learning processes or using emerging
technologies such as artificial intelligence in socioenvironmental projects (Beckmann
& Schaltegger, 2020; Laasch et al., 2020).
In this research, the interdisciplinary approach is
conceptualized as the integration of several disciplines that contribute to the
generation and application of knowledge from different areas to produce new
scientific knowledge to contend with climate change. The integration of
different knowledge sources, that is of an interdisciplinary perspective is
required (Dube, 2021; Leahey & Barringer, 2020). The transdisciplinary
approach is different because the whole process of knowledge creation is
collaborative (space-time duality), and it does not require a final integration
process because the transdisciplinary knowledge creation is articulated with
public policies, technologies, and communities of practice of different sectors
of the society (Karrasch et al., 2022).
The research was exploratory with an explanatory
emphasis as it examines the universities' actions to ascertain their
contribution to mitigating and adapting to climate change. The methodological
approach was qualitative based on a phenomenological and hermeneutic analysis,
which used collected data and systematically coded (Clifford, 2003) to unveil
social trends and enhance the comprehension of the universities’ role toward
climate action. The validation had two paths; the internal through the
triangulation of data; the external through analytical generalization (Yin,
2013). The literature review used search keywords "sustainability
practices”, "climate action", “sustainable behavior”,
"sustainable factors", "sustainable drivers" and
"sustainable intention". The keywords University and “Higher
Education Institutions" were added to strengthen the search. The
methodological process comprised two phases to analyze the categories and
paradigms defined by the universities, and the scheme of appropriation of the university’s
communities that translates these normative guidelines into sustainable
practices.
The first phase encompassed the deep study of the
sustainability statements and reports of 15 Mexican universities. These
institutions were selected through purposive sampling (Patton, 2015). The basic
inclusion criteria were the following: 1) availability of published information
about the sustainability plans and actions and 2) a
heterogenous sample of universities in terms of size, scope, and funding.
Figure 1 shows the geographical distribution of the campuses of the sampled
universities. 73% of the studied universities were
public institutions and the rest were private; 60% had a local scope, 7%
regional and 33% national. The information was obtained from official WEB
sites, indexed scientific papers about the commitment and social responsibility
towards climate change of Mexican universities, and grey literature including
the thesis and proceedings of academic conferences. The highest proportion of
documents (91%) discussed sustainability programs, projects, or implemented
actions, and the rest described how the success of these implementation efforts
was monitored and evaluated.
Figure
1
Geographical
distribution of the selected university campuses
Source:
by the authors based on information from institutional WEB sites.
In the second phase of the methodology, a systematic
analysis of 43 university initiatives of climate action from four local public
universities of Mexico –Guadalajara, Guanajuato, Nuevo León and Yucatán- that
involved the participation of students, professors, and management were
analyzed in detail. The selection of these was through an intentional sampling
(Patton, 2015) based on two selection criteria. The first,
the institutions of these territories in the ANUIES report evidence
significantly sustainable activity (ANUIES, 2020). The second, the complex environment
of these universities has had highlight features; Guadalajara, Guanajuato and
Nuevo León have had a strong industrial vocation and strong environmental
challenges (Álvarez et al., 2018); Yucatán has been acknowledged as an
innovation pole and has occupied the eighth national place for its
green-scientific productivity (Porto et al., 2019).
This analysis allowed the interpretation of climate
change interventions as a social phenomenon. Although the qualitative strategy
limits the generalization of results (Clifford, 2003), the diversity in the
profiles of the units of analysis allowed a broad description of how the
university influences the community through its sustainable contributions. The
global hermeneutic unit was analyzed to identify key terms and phrases
(Clifford, 2003); the codes associated with the most representative categories
of climate mitigation (e.g., reduction of water, energy, and waste management)
were analyzed through frequency tables of co-occurrence in ATLAS.ti®
v.8.4.5. In addition to the pro-environmental practices formally defined by the
institutions, the interaction between the university with key ecosystem actors
(e.g. the local community), the public-private alliances, and the expected
social, environmental, and economic internal and external impacts of climate
change mitigation actions were examined.
The replicability of the research procedure was
ensured through thorough documentation, recording of all data sources, and
coding decisions. Coding proceeded as follows: 1) initial codes were developed
using the keywords themselves; 2) these codes were grouped and categorized
using word cloud analysis, and the coding schemes included calculating
co-occurrence frequencies. Next, these were synthesized to proceed with the
construction of the semantic network. Finally, the multilayers semantic network
was built. This complex network has spheres that represent the sustainability
categories, lines to show the spheres’ connection, and a coded color to
indicate each layer of the network. The size of the spheres was defined by the
frequency of co-occurrence in the semantic analysis. The sphere-connecting
lines show different types of scalar connections; thus, these are not shown as
arrows. Although the coded color shows the three main connection-layer based on predominant frequency, these three layers
link with each other because of the connection categories that were found in
each layer (multidirectional paths).
Institutional
sustainability approach
A strategy identified for all cases was the formation
of a specialized area responsible for developing and monitoring the
university’s environmental actions. This organizational unit is acknowledged as
the Sustainability Board, Green Office, Sustainability Office, Sustainability
Services Office, Socio-environmental or Co-responsibility Office, and Social
Impact & Sustainability. Three sustainability tactics were identified:
backing environmental practices (e.g. recycling) among the community and in operations
(e.g. using intelligent light switches), assessment of pro-environmental action
(e.g. measuring water and energy savings), and low-carbon individual choices
for climate action. According to Hampton and Withmarsh
(2023), these choices are related to the reduction of greenhouse emissions by
using renewable energy sources, changing to non-motorized transportation modes,
reducing consumption, and influencing social groups to adopt sustainable
lifestyles. The three broad tactics were identified in the 15 institutional
discourses: the level of the actions (institutional versus campus level), the
periodicity of measuring the effectiveness of pro-environmental actions and
revising them, and the assignment of specific budgets.
The low capabilities of the University to develop
collaborative projects with external organizations were evidenced by the low
frequency of the category; thus, increasing the number of joint projects is a
relevant challenge. Particularly, the participation of the universities in
joint projects under international agreements for environmental care was
extremely low. The Mexican Alliance for Climate Action (ACA-MX), part of the
global initiative of the World Wildlife Fund (WWF) was cited as an example, but
without evidence of the specific role of the university in the alliance.
Nonetheless, the participation of the university community in work teams
involved in the proposal of environmental laws and local public policies was
high. This is a highlight because the literature review show that the sustainability
projects represent a research opportunity at disciplinary, interdisciplinary,
and transdisciplinary levels to develop green technologies, especially around
resource and energy efficiency, design theory-based interventions to promote
environmental awareness and efficiency at the university and regional level,
and new business models related for example to circular economy (Karrasch et
al., 2022; Goldberg et al., 2020; Leahey & Barringer, 2020).
Most university projects were mainly focused on
increasing the environmental knowledge and awareness of the university
community. Some projects showed the designing social
interventions to reduce carbon footprint (mitigation) and others used
theoretical frameworks to understand how behaviors and habits become
established, adopted y can be transformed. Only simple behaviors such as waste
recycling and the use of energy-saving bubbles (LED) in university facilities
were commonly reported. Other behaviors such as reducing the consumption of
energy, changing to renewable energy sources (e.g., photovoltaic panels),
cutting transportation fuel, and decreasing consumption of goods were reported
only by a few campuses.
A high frequency of learning units –courses,
workshops, and projects- related to environmental sustainability or social
responsibility at the undergraduate and graduate levels were recorded. The
curricular content was difficult to assess; however, the analysis by title of
learning unit coincided with the six domains of individual choice for climate
action of Hampton and Whitmarsh (2023) –citizenship, energy, food, influence, shopping
and transport-. Based on dense description, Table 2 shows the key categories
that emerged from the systematic analysis, ordered by its relevance to
conceptualizing sustainability and climate action. It is highlighted that some
categories were integrated by relevant subcategories –for instance, welfare:
corporate citizenship, community commitment, social responsibility, sustainable
territories, sustainable communities, or economy was correlated with circular
models, green, social, share-.
Table 2
Categorization
of institutional sustainability
|
Category |
Frequency |
Category |
Frequency |
|
Natural resources |
0.2195 |
Biodiversity |
0.0976 |
|
Technology |
0.0732 |
Digital society |
0.0724 |
|
Welfare |
0.1708 |
Ecosystem (ambiance) |
0.1215 |
|
Economy |
0.0962 |
Environmental |
0.0951 |
|
Responsible consumption |
0.2244 |
Education (training) |
0.0244 |
Source: by the authors.
Pro-environmental practices and climate actions were
identified based on the analysis of dense descriptions. The areas of knowledge
were distributed among the following disciplines and schools: engineering
(22%), economic and management science (18%), social and political science
(18%), sustainability science (14%), and others (28%). The analysis showed
interdisciplinary teamwork had a significant frequency of co-occurrence. When
the thematic categories of climate action were compared across disciplines, two
of the main domains of climate action (energy management and mobility) were led
by engineering, mainly oriented to technology and innovation and in seeking to
integrate issues of sustainability into professional education courses.
Table 3 shows the frequency of co-occurrence of the
main concerns demonstrated by the universities’ actions and practices: 57% of
the activities focused on energy, water, and waste management while the lowest
frequencies correspond to digital citizenship, cultural influences and
pollution reduction. Furthermore, statements regarding the use of social media
to share green technology innovations and generate public interest in
environmental protection had a high frequency and are acknowledged as a new
strategy to catch the attention of the young generation that is more
environmentally conscious and technology proficient. This is coincided with Oke
(2023), who assure that the technology innovations help to achieve and promote
sustainability behaviors. According to Zhang (2020), social technologies
–digital competencies and infrastructure- and institutions are key components
to achieving multidimensional sustainability. However, the adoption of these
technologies requires open, free, and unlimited access to the Internet and
technological devices; this represents a strong challenge to Mexico (and Latin
America) due to their significant educational lags and student communities with
deeply heterogeneous resources.
Table 3
Level
of environmental practice and climate action
|
Category |
Subcategories |
Frequency |
|
Energy |
Eolic, solar, and electrical energy Efficiency, consumption monitoring Renewable or green energy |
0.2043 |
|
Water |
Accessibility as a Human Right Efficiency, consumption monitoring Infrastructure from hoses or taps to treatment
plants |
0.1429 |
|
Waste management |
Urban management of hazard residues from academic
labs Handling and safe disposal of electrical and
electronic scrap Decentralized composting in dwellings Recycling |
0.1836 |
|
Environmental governance |
Green campus Living labs for technological or social development Green entrepreneurship: social or ecological
sustainability initiatives. Sustainability innovation projects (multi and
interdisciplinary) Participatory territorial planning |
0.1020 |
|
Responsible consumption |
Ecological footprint Plastic reduction Plastic-free |
0.1020 |
|
Ecotechnologies |
Rainwater harvest Bioclimate buildings |
0.0816 |
|
Biodiversity conservation |
|
0.0816 |
|
Mobility |
Share Hybrid |
0.0408 |
|
Digital citizenships |
Electronic management Digital learning to SDG |
0.0204 |
|
Cultural heritage |
Vernacular knowledge Indigenous lore |
0.0204 |
|
Pollution reduction |
|
0.0204 |
Source: by the authors.
According to the analysis, climate actions are diverse
and not always institutionalized because of the highly heterogeneous
characteristics of the universities. The findings showed
all institutions offer teaching on climate change; however, climate teaching is
restrained to the natural or environmental sciences
programs for 93% of the institutions. The main climate change actions include
research projects, teaching/training programs, community-related programs, and
academic publications.
Sustainable
communities approach
The university initiatives studied to involve the
participation of students, professors, and management. The formation of
interdisciplinary teams was part of 82% of the initiatives and was acknowledged
as a key enabler for the creation of approached sustainability from a holistic
perspective. According Dube (2021), Coscieme et al.
(2020), Leahey and Barringer (2020), interdisciplinary collaborative projects
have great potential to generate high-impact research with better practical
results because of the integration of knowledge to understand biophysical
processes, the structure and operation of ecosystems, institutional processes,
and the cultural, economic, and political elements of the socio-technical
systems that influence environmental decisions and behaviors. The nature of the
projects was correlated with exogenous social and
physical influences and cultural patterns; in the most
cases, the low environmental community participation was alluded.
The stakeholders that triggered most of the
initiatives were professors and student groups, although at least one of the
private universities declared a top-down approach. In general, the initiatives
analyzed promote awareness of the biophysical environment (issues and possible
solutions) and the active participation of students through systematic
activities focused on the preservation of natural resources, adoption of
sustainable lifestyles, and the foreseeing of social welfare. These
findings coincide with Leal et al. (2022) and McCowan et al. (2021), who assure
that the climate action of universities is fundamental to encourage respect for
the environment, improve perceived environmental efficiency, influence
consumption decisions, and reduce social inequalities in surrounding
communities.
The analytic results showed an increasing trend in the
climate actions led by university students. The initiatives were classified
into two general groups: the first refers to endogenous tactics that include
for example environmental awareness campaigns or research projects, and the
second refers to exogenous tactics, social interventions, and
interinstitutional projects such as the Inclusive Recycling Model that
organizes and formalizes the activities of urban recyclers in the surrounding
community of the campus of one of the universities. This finding is relevant
because climate change actions focus on the practical efforts to balance human
welfare with environmental care supported by the different actors of the
ecosystem (Álvarez et al., 2023; Pearson et al., 2021; Reichert, 2019).
Actions such as reducing the plastic footprint,
harvesting rainwater, encouraging car sharing, reducing car use, increasing the
use of eco-bicycles, building green walls with low-water plants, growing
vertical gardens, reducing the generation of solid waste, recycling –plastic,
paper and other materials-, were among the most frequent actions reported by
universities as sponsored by student teams. The reduction of the plastic
footprint was a widely pro-environmental action triggered by the university community's
concern about the environmental harm generated by the high consumption of
bottled drinks in disposable plastic containers. The reduced use and reuse of
disposable bottles was mentioned as notorious among students, nevertheless, the
use of disposables in university cafeterias was mentioned as very high. This
finding is added to debate around the problem of the use of plastics and the
lack of actions to reduce the greenhouse gas emissions caused by plastics and
the low interest of people to change their shopping habits to actively avoid
plastic packaging (Ridhosari & Rahman, 2020; Montero,
2015).
Regarding the reduction of solid waste, evidence of
medium to high environmental action was found. The presence of garbage
separation bins and the training of the university community about the shared
responsibility to reduce solid waste agree with Ridhosari
and Rahman (2020) who recognized these strategies motivate collective climate
action. Low responsibility of the university community about waste disposal was
reported in despite of recycling and reuse are the
most common green initiatives reported by universities. Water conservation and
reuse were among the least extended pro-environmental actions. Poor management
of water was shown for example
by the excessive water consumption of automatic irrigation systems without
proper maintenance. Actions aimed to decrease energy
consumption were practically non-existent and are of low interest to students.
The analysis of the information showed that there are
individual efforts to mitigate climate change, nevertheless they are not well
coordinated across schools and through collaboration with local private and
public organizations. Thus, these climate actions have a limited lifetime (the
school cycle) and impact. The taxonomy of university initiatives shown in Table
4 signals the construction of paths to harmonize climate action with the
sustainability spheres.
Table 4
Taxonomy
of university initiatives
|
Category |
Frequency |
Category |
Frequency |
|
Institutional Environmental education Reforestation |
0.5676 |
Environmental management Preventive action Mitigation action Socioenvironmental commitment Interaction - productive sectors |
0.1081 |
|
Urban sustainability Environmental education Preventive action |
0.1061 |
Digital sustainability science Social communication Training (adaptation and mitigation) |
0.0811 |
|
Water Environmental education Preventive action Culture |
0.0801 |
|
|
|
Mobility Preventive action (e.g. Eco-bikes) |
0.0270 |
Biodiversity Preventive action |
0.0229 |
Source: by the authors.
The involvement of the university community in
pro-environmental projects defined at the institutional level (top-down stream)
seems to be decisive in achieving meaningful results. These findings agree with
McCowan et al. (2021) and Leal et al. (2020), who assure that the universities can accelerate the
ecosystem’s climate motivation by promoting sustainable lifestyle behaviors,
purchasing energy-saving products, reducing and conserving energy and water,
and reducing/sorting waste. Moreover, it was evidenced that the
community involvement is a key enabler for climate action provided
environmental compromise and trust in the efficiency of climate actions
increase. Nevertheless, Goldberg et al. (2020), VanDyke and Lee (2020) make
certain that the appropriate communication of the quantitative impact of
climate actions is essential for the engagement and collaboration of the
university communities.
Universities have the resources –education, research,
and social status- to increase climate education and change the attitudes and
behavior toward the environment of young generations. Mexican universities
should be more than a triple-helix actor who promotes or executes projects
whose scope is limited to specific university areas. Climate action implies the
adoption of a new holistic socioenvironmental ethics that can contribute to
building sustainable societies committed to social equity and the protection of
the environment (Pearson et al., 2021). The involvement of student communities
through transversal sustainability education and formal courses in all
education programs is critical to increasing the interest of students to support climate change actions and become
sustainability professionals; the interdisciplinary teams could achieve better
results.
A major challenge is the design of transversal
educational programs for climate action. According to Sharma et al. (2020), Thelken and Jong (2020), a social approach to innovation
and entrepreneurship in business and engineering schools is relevant because
sustainable entrepreneurship education allows the achievement of the SDGs.
Global warming, air pollution, depletion of ecosystems, and the gradual decline
of biodiversity among other climate change issues are urgent "global
emergencies" (Boyd et al., 2022; Coscieme et
al., 2020) that require a social and ecological transition supported by the
University (Álvarez et al., 2024; McCowan et al., 2021; Wamsler, 2019).
The dense description shows that the climate action
must involve the whole society and go beyond some “likes” or “comments” on
environmental topics on social media [a phenomenon commonly known as
slacktivism (Oliver, 2022)]. Based on the analysis, climate actions are diverse
and not always institutionalized because of the highly heterogeneous
characteristics of the universities. According to Hampton and Withmarsh (2023), the climate action implies a fundamental
cultural change and requires individuals to become “climate citizens” who
participate in climate action at several levels, by expressing opinions,
voting, engaging in the proposal of environmental policies, and making choices
that indicate they recognize human beings are part of ecosystems and not the
center of them. Figure 2 shows the identified climate actions, the actors who
contribute to defining and supporting these actions, and the drivers (e.g.
pressure of stakeholders) and ends (e.g. inducing sustainable lifestyles) of
the ongoing transformation of universities toward sustainability.
Figure
2
Mexican
system of climate education
Source: by the authors.
Based on the findings, the training of communities
capable of intensifying the climate actions is
possible through three core functions: transdisciplinary education, promotion
of sustainable lifestyles, and green-technology transfer. The three paths
operate independently but they are closely interrelated because climate action
involves multidirectional interactions and there is not a dominant topic or
path. However, Álvarez et al. (2024) assure that the didactic models in higher
education institutions should migrate from an environmental educational
approach (techno-economic) to a climate education model (socioenvironmental
praxis) that promotes the creation of professional interdisciplinary teams that
tackle climate change problems through experiential learning and research
projects conducted by several schools and with external partners.
Based on findings, Figure 3 shows a multilayer
semantic network that graphically depicts how sustainable practices
interconnect and are supported by interdisciplinary university communities. The
network was mapped based on the co-occurrence frequencies reported in Table 4
and posits that each layer is equally relevant to the formation of communities
capable of intensifying the ecosystem’s actions to tackle climate change
through three core functions: transdisciplinary education, promotion of
sustainable lifestyles, and green technology transfer. The three layers operate
independently but they are closely interrelated because the complete network
involves interactions between its elements, its operation is largely based on
their multidirectional interactions, and there is not a dominant topic or path.
Figure
3
The multipaths
of the sustainability education
Source:
by the authors.
The practical implications focus on the transformation
of higher educational institutions into “sustainable universities” that educate
and engage students, faculty, and communities in sustainable activities that
respond to the current needs of their socio-ecological context, for example,
conserving water or preventing land degradation through ecological agricultural
practices. Additionally, universities must systematize their collaborative
action for sustainability because networking is fundamental to providing
practical solutions to the complex problems posed by climate change. These
implications set the basis for the following recommendations: 1) sustainable
education should begin at the basic educational levels; 2) all educational
programs must integrate at least a course related to climate action; 3) the
courses should be designed under an interdisciplinary approach and offered
early in the curriculum; 4) universities must assume responsibility for
sustainable development in their core functions, namely research, teaching, and
social influence.
Mexican universities are uniquely positioned to foster
the social, cultural, and structural change to impact climate action; however,
an institutional framework for sustainability is essential to systematize
climate action. Universities must overcome significant institutional challenges
to transform their traditional educational approaches into innovative
educational models, where sustainability and educational technology are
strategic pillars for achieving experiential, practical, and community-integrated
learning. Based on findings, three strategies are proposed to achieve SDG 13.
1) Curricular gaps must be closed; students must acquire theoretical knowledge
and develop the necessary technical and practical skills to apply it within
their educational programs; socio-environmental and economic complexity demands
new leadership and intermediation skills in the role of Mexican universities. 2)
Educational innovation must be a central strategy to achieve the
active student participation in climate action; moreover, the plan for
the (re)training of professors should face the challenges of digital and
climate transformation. 3) University infrastructure must be strengthened to
operationalize climate education and the linking of university work with the
productive, social and public sectors.
The analysis of the climate actions reported by public
and private Mexican universities supports the premise that education in
sustainability is crucial to mitigate and adapt to climate change. This research
concluded that interdisciplinary university communities are capable to trigger
climate action and support the three axes of the sustainability. However, current actions to tackle
climate change are mainly downstream, which is promoted by students’ teams for
a short time, while institutionalized actions do not commit to the university
community. Thus, a major challenge of climate action is the management of the
social indifference toward climate change and the enhancement of the
environmental awareness and perceived efficiency of pro-environmental actions
of the university community. Transdisciplinary education and research, the
encouragement of responsible consumption in all educational programs, as well
as the use of technology are climate actions that require top-stream
reinforcement.
This work adds to the discussion of the role of
universities in contributing solutions to the sustainability challenges of the
21st century for socially disadvantaged regions with slack regulations,
incipient environmental policies, and whose population suffers the consequences
of climate change. The negative social impact of climate change demands
universities to open and support new lines of sustainability research including
the study of the effect that multi, inter, and transdisciplinary education has
on the sustainability lifestyles and careers of faculty, staff, and students.
This study is not without limitations. The first one
is the broad characterization of the universities’ process of climate action.
Climate actions could be further categorized using for example the archetypes
that describe the projects and solutions that may contribute to building up a
sustainable model for universities (Ritala et al., 2018). The second limitation
is the limited generalization of results due to the qualitative research
approach used; however, the information collected comes from a heterogeneous
set of university communities selected according to their experiences in
supporting sustainable research projects and backing climate actions. The
replication of the study using a stratified sample of Mexican universities
would allow the confirmation and extension of results. Likewise, critical
analysis of international university strategies will be considered in the next
phase of the research to strengthen the explanation of why some initiatives
performance better than others.
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[1] Full Professor; Department of Social Studies, Division of Social
Science and Humanities at University of Guanajuato; México, Research line:
innovation and technology management for sustainability, ecotechnologies and
climate education in HEIs. lc.alvarez@ugto.mx. ORCID: 0000-0003-2512-8230
[2] Emeritus Professor; EGADE Business School, Tecnologico de Monterrey,
certified by the University of Texas at Austin; Mexico, Research line:
Sustainability marketing focused on the Sustainability Development Goals 3
(Good Health and Wellbeing) and 12 (Sustainable Production and Consumption), pilar.arroyo@tec.mx. ORCID: 0000-0002-6160-871X.
[3] Full Professor; Department of Social Studies, Division of Social
Science and Humanities at University of Guanajuato; México, Research line:
water, RSU. datagle@ugto.mx. ORCID:
0000-0002-6203-7429.