Sage Journals: Discover world-class research

Abstract

Transitioning to climate-neutral cities is difficult in practice, depending on complex urban activities and involving a vast range of stakeholders. Cities need ongoing support for assessing and implementing climate-neutral solutions. Following multi-country, collaborative academic workshops on this topic, we debate the use of new technologies and integrated planning approaches. We contour a preliminary framework underpinned by five key dimensions (urban nature; urban mobility; built form; energy; and circularity), triangulated with three research pillars: 1) citizen engagement, 2) city governance decision-making, supported by 3) digital technology. This essay proposes digital technologies as a bridge between bottom-up and top-down directions, challenges silo-thinking, and informs a cross-disciplinary, integrated climate-neutral planning process (in Europe).

Keywords

climate-neutral cities collaborative research citizen engagement city governance decision-making digital technology integrated planning

Introduction

Cities will host nearly 70% of the world’s population by 2050 (United Nations, 2019). They are great emitters of greenhouse gases (GHG), and urban populations bear the brunt of climate impacts. Hence, cities must be at the forefront of climate-neutral action (European Commission, 2019), but the task at hand is of enormous complexity.

Concepts such as “climate-neutral cities”, “low-carbon cities” and the like are subsets of the “sustainable city” concept encompassing environmental, economic, and social aspects, but with a stronger emphasis placed on technical and energy issues (Fu and Zhang, 2017). However, framing climate change as a technical issue has contributed to prioritising predictive natural sciences and algorithm-based research, while integration with social sciences/humanities and epistemological diversity in research groups is scarce, leading to limited perspectives and solutions (Schipper et al., 2021). Within this predominantly technical framework, the wider environmental, economic, or social implications can become de facto, sidelined, or straightforwardly overlooked (Castán Broto and Westman, 2020). The overreliance on technology in climate issues has led to neglecting the role of stakeholders, institutions, and policy frameworks. Illustrative in this sense are tech market failures with underperforming flagship projects, where carbon capture and storage have mostly been used to enhance oil production and increased GHG emissions (Robertson and Mousavian, 2022). As political ecology scholars also warn against the dangers of letting climate change interventions entirely to the technocratic realm, it is important to advance towards a hybrid, relational approach that helps unpack the underlying, interconnected processes of climate issues (Heynen, 2016; Shahani, 2022).

In turn, in the field of urban planning, which should operationalise innovations with transformative potential (Sahani et al., 2022), there is a notable research gap on digital technology and the use of AI. Urban planning is data-hungry (in order to be either effective or responsive), and although slow to adopt technologies, it could capitalise on these to gain new insights into the efficiency of proposed or implemented solutions. Yet, many of the problems cities face are context-sensitive, interpretable, or without an immediate solution (Sanchez et al., 2022), requiring human understanding and input over rule-based algorithms. Better integration of proven technological solutions with complex human decision-making could inform urban planning digitalisation and increase efficiency (Daniel and Pettit, 2021).

Municipal governments remain in need of comprehensive support and guidance to navigate multiple complexities, including the lack of systemic vision and knowledge (Huovila et al., 2022), financial and organisational risks emerging from conflicting financial interests of stakeholders (Juhola et al., 2020; Parks, 2020), or governance issues such as reduced and ineffective regional and national support (Laine et al., 2020). The comprehensive support that cities need in pursuing climate neutrality is not likely to emerge from a research environment still dominated by single disciplinary or individualist frameworks (Ellis et al., 2014). The latter, coupled with the lack of intersectoral understanding, has contributed to city outcomes currently falling behind expectations (de Bruin and Morgan, 2019). Furthermore, if innovative social, ecological, or technological projects do exist, they fail to properly inform policy and planning practice (Shahani et al., 2022), while poor policy evaluations occur via mismanagement of decision support systems (Waldron, 2019). Hence, research in climate-neutral cities is at an impasse in knowledge transfer to practitioners, stakeholders, policymakers, and particularly citizens, as a too broad/top-down approach to climate-neutral cities tends to disregard the local conditions and local residents’ preferences (Heiskanen et al., 2015). More ambitious targets based on both a wider involvement of local communities and the training of adequate professional players able to lead local transitions in city governance are needed.

This essay combines a literature review with collaborative interdisciplinary workshops to offer a thoughtful reflection on why so far urban climate action has only had marginal effects on the ground. It then aims to understand the role of technologies in increasing the efficiency or impact of urban climate neutrality programs by enhancing the interactions between ‘people and cities’ or ‘citizens and governance’ towards a climate-neutral future. We then discuss an integrated planning approach in this direction, considering underpinning dimensions of climate-neutral cities, and put forth cross-disciplinary research topics that could cover the gaps resulting from siloed research. The main context of analysis is Europe, while other populous economies were considered for comparative purposes.

Methods

The methods employed for advancing this preliminary research were twofold:

(1) A targeted search of academic literature and key policy documents was performed, with keywords of (‘climate neutral’ AND ‘city’ OR ‘framework’) and (‘carbon neutral’ AND ‘city’ OR ‘framework’)¹, using Google Scholar and the Web of Science to frame the interest in and approaches for climate-neutral cities from publications after 2015 (when the Agenda 2030 was released). Five key dimensions of climate-neutral cities were identified from this scoping review, as well as limitations and failings of current urban climate-neutral strategies.

(2) An interdisciplinary team of scholars (from urban and spatial planning, political science, geography and geosciences, environmental sciences, and architecture technology) from six universities in different European countries (University College Dublin, University of Bologna, University of Girona, University of Heidelberg, University of Helsinki, and Queen’s University Belfast) collaborated in a series of structured discussions to formulate a novel research approach for climate-neutral cities. The sessions were held via weekly online meetings from September to November 2022 and were moderated by this paper’s first author. The discussions were centred on the main challenges and research gaps on the five key dimensions of climate-neutral cities, and the academics were first invited to formulate a 1-page overview from their own fields of expertise. Incorporating over fourteen such overviews, the moderator has then contoured a preliminary framework for integrated planning of climate-neutral cities, refined in an iterative process with the scholars involved. Overlaps were identified and discussed, and any disagreements were resolved within the process, or have been noted as challenges. A smaller group (i.e. the authors of this paper) followed up closer thereafter in the process of mapping more in-depth the limitations and putting together cutting-edge examples of research topics to cover some of the identified gaps.

Urban policies for climate-neutral action in different contexts

As a number of countries have taken net-zero pledges (e.g., the EU and the USA by 2050, China by 2060, or India by 2070), this section describes urban climate-neutral policies (or lack of) in different global regions. The EU, aiming to make Europe the first climate-neutral continent, is the starting point of this analysis. For comparison, we considered other (populous) economies, well-known for either their top-down (China, Iran) or bottom-up approaches (India), or situated in-between (US, besides the EU), to open a discussion on how similar or different their approaches to climate-neutral cities might be.

EU. With recorded emissions of 7.2 tCO2e per capita (UNEP, 2022), the European Commission (2020c) aims to concentrate its efforts on five enablers for climate-neutral transition: i) promoting a model for integrated urban planning, ii) developing new forms of participative and innovative city governance, iii) providing smart systems and data platforms, iv) transforming cities into innovation hubs, and v) promoting a financial model for climate action. In this essay, we debate closer the first three and highlight some implications for the last two enablers.

The ‘European Green Deal’ is a ‘new growth’ strategy of the European Commission (2019) for a climate-neutral economy, recently criticised for the possibility of becoming a form of ‘greenwashing’ in urban planning, prioritising urban expansion and economic growth at the expense of justice-oriented goals and more comprehensive sustainability objectives, by being framed, for instance, around nature-based solutions (NbS) (Anguelovski and Corbera, 2023). Another strategy of the EU, the ‘Climate-Neutral and Smart Cities’ mission promotes innovation in over 100 cities designated to be climate-neutral by 2030, meant to act as experimentation hubs and inspire a systemic transformation (European Commission, 2020b). However, although these designated cities have taken pledges and signed climate-neutral contracts, many of them do not have an explicit implementation plan and still face challenges derived from the too fragmented, non-inclusive, and non-integrated actions, ineffective investments due to poor data, lack of significant effort in knowledge exchange, or the lack of governance models at scale to reach the climate objectives (preliminary data to the Horizon Europe project REALLOCATE, co-led by this paper’s first author).

US. Within the largest GHG emitter per capita (14 tCO2e, followed by Russia with 13 tCO2e, and China with 9.7 tCO2e, UNEP, 2022), every city with a population over 1 million has joined either the Carbon Neutral Cities Alliance or the C40 organisation. While these organisations provide a forum for city leaders to share best practices and promote planning principles such as high-density building, mixed-use zoning, and transit accessibility, the city governments are not legally bound to climate-neutral goals and furthermore, there is no national US policy to attain climate neutrality.

As with most governance in the US, there is a patchwork of policies at different scales (city, State, and national), which can be regarded as a major barrier to tackling climate issues. While Federal (national) funding for infrastructure continues to prioritise private vehicles and the oil and gas industry, there have been attempts to fund local green infrastructure. Yet, several politically right-leaning State governments are blocking these funds along with restricting local initiatives from instituting climate regulations that have higher requirements than those at the State-level (State preemption). For instance, a State could block a city from passing stricter regulations on vehicle air emissions.

China. In the world’s largest GHG emitter (over 14GtCO2e, see UNEP, 2022), the State Council released a “Guidance on Accelerating the Establishment of a Sound Economic System of Green, Low-Carbon and Circular Development” in 2021 with a focus on green industries until 2025 and on reaching an international level in energy and resource efficiency by 2035 (Wang and Huang, 2021). However, carbon-neutral research in China often lacks depth or is siloed, for example, focused on low-carbon transport but not integrated with land uses or the urban spatial form (Zhang, 2012). Although significant research has been undertaken (particularly after low-carbon city pilots were initiated, as China’s main scholarly output depends on where the government directs the major funds), most studies are using data from Chinese cities’ statistical yearbooks that are limited in scope and underestimate the actual CO2 emissions (Wang et al., 2023). China continues to pollute, expected to reach the peak of CO2 emissions by 2030 due to its dependence on coal resources, but planning to achieve climate neutrality thereafter (Chen et al., 2021).

India. The largest democracy and third largest emitter (although remaining far below the world average with per capita emissions of 2.4 tCO2e, UNEP, 2022), India faces challenges with its heavy dependency on coal, while population explosion and citizens’ lack of climate change awareness make global warming’s adverse effects even more evident in this context (Parija and Bobhate, 2022). India massively accounts for pollution-related deaths in some of the world’s most polluted cities but lacks a clear direction and targets for polluting sectors (Sharma, 2022). The country is recognized for its bottom-up approach, but a concrete or strong governance trajectory is missing as, for bottom-up participatory projects to be effectively implemented and scaled up, top-down support is essential (Joshi and Rao, 2017). Furthermore, along with a stronger engineering focus and prioritization, integrated urban planning has been overlooked in this context. Nonetheless, to tackle some of the issues, the Government of India adopted the National Action Plan on Climate Change (NAPCC) in 2008, and has, since then, advanced plans and strategies on green electrification and renewable energy, although funding is limited (Sharma, 2022).

Iran. The world’s largest non-G20 emitter (Olivier and Peters, 2020), Iran, released its “National Strategic Plan on Climate Change'' (NCCO) in 2017 in order to meet its 2030 emission cut targets (Kuramochi et al., 2021). The aim was to use this document as a supplement to the country's Five-year Social Economic Development Plans (i.e., national frameworks for development). However, its ambiguous statutory position has led to its sidelining, and the ideas advanced had little reflection in other governmental policies and strategies, as the country is struggling with pressing economic difficulties. Furthermore, considering Iran’s theocratic governance system, the lack of public consultation, participation, and other democratic elements are evident in decision-making processes towards climate neutrality (see also Bouregh et al., 2023).

Although multiple countries have announced their climate-neutral objectives, the politics and planning discourses vary significantly across national contexts, depending on power dynamics in administrative and governance systems, development ideologies, planning laws and regulations, as well as different roles played by the civil society in decision-making processes, which, along with their specific historical and cultural traditions, are extremely determinative in shaping (and differentiating) the approach towards urban climate neutrality. While the EU, for instance, bets on integrated planning as one of the key drivers to climate-neutral cities, in some contexts, there might be no integrated planning systems in place (e.g., in Iran, where planning and development is steered via scattered decision-making agencies).

Three pillars of action for climate-neutral cities

The inability of so-far strategies employed in the EU (and across the globe) to reach urban climate neutrality exposes the need for rethinking the path forward. Climate action requires complex, multidisciplinary and multiscale research and decision-making (Mimura et al., 2015; IPCC, 2022). Moreover, adaptation policies are fundamentally local processes involving local authorities, communities, and multiple other stakeholders (Preston et al., 2015). Hence, enhancing public participation in climate policy-making could synergise an environmentally conscious base with socially-engaged citizens to transform innovation into action within a more responsive and innovative governance model (European Commission et al., 2020c).

Based on the literature review and group discussions, it emerged that systematic research on engagement and governance processes (citizen & State), along with considering technological potential and challenges (digital tools), is a potential and under researched path towards achieving better-integrated advancements in climate-neutral cities (in Europe). This can be manifested under a 3-pillar approach (presented below), where technology should be used in synergy with the two other pillars of governance and participation to make a difference on the ground.

The bottom-up/participatory pillar

A bottom-up pillar of research and practice centred on participation and engagement is needed to improve social outcomes and decisions through collaborating with citizens (Shahani, 2022), as so far climate-neutral research has only had marginal impacts on actual civil society experiences, public acceptance, and uptake, while issues such as social resistance, equity, and climate justice have often been neglected (Heiskanen et al., 2015). Climate-neutral solutions require close consideration of citizen values and norms by informing, consulting, involving, and empowering citizens in local participatory planning that is adaptive and considerate; this needs to happen on an ongoing and meaningful basis, rather than only consulting the community after planning or policy development has begun, as it usually happens in practice (Auerbach et al., 2020; Schönwälder, 2021). For such grand societal challenges, citizen engagement must be deliberative, influential, and inclusive in order to elicit wellbeing (Schönwälder, 2021). However, significant challenges to a bottom-up approach to climate action exist. For example, some current political systems, institutions, and societies are not able to implement high-level participation, lacking defined procedures, guidelines, legislative and statutory foundations, or expert human resources (see the case of Iran above, or other countries in the Middle East). Even in contexts with significant participatory efforts encouraged through public sector support (e.g., in the EU), public interest in participatory processes often dwindles (with participation potentially perceived as lengthy and boring) and is unequal across communities (e.g., engagement with young or historically marginalised groups is consistently low).

The top-down/governance pillar

This second pillar concerns providing improved support for innovative and more effective city governance decision-making through more suitable planning and governance tools. Strategic planning, for instance, can manage long-term development sustainably by integrating different practices (Hillier, 2016; Shahani, 2021); despite similar economic and transformational objectives, having regulations that vary internationally and intranationally results in limited replicability, while contradictions between approaches and policies exist within the same countries (Jackson, 2022). Furthermore, governance transparency and political agendas that are constantly changing or not matching individual or community needs are challenges still encountered in the EU context. Moreover, favouring major eye-catching or infrastructural projects that are not necessarily sustainable still occurs in the general development of some countries (see the continuous expansion of highways in the US or Eastern Europe). Some projects attract through technology, but their climate-friendliness is still debatable (see Masdar City, a NetZero city planned in Abu Dhabi by partnering with human resources from the EU/US). Considering the above, comprehensive climate-neutral research efforts must challenge neoliberal discourses’ sustainability frame, which negatively affects socio-ecological processes in the first place (Swyngedouw, 2011). Innovative reforms of local government systems to drive environmental justice transnationally are required, as no concrete outcomes would be in sight until objectives of climate neutrality are translated and integrated into local policy documents, despite formalised national and international discourses (Gustafsson et al., 2019).

The link/digital tech pillar

The third pillar is that of digital technology. While climate-neutral programs have achieved much technologically (e.g. through prototypical open-city toolkits containing software and apps to tackle pollution or other arising climate matters), communicating the solutions to stakeholders and the general public proved difficult, requiring closer co-design and co-planning for scalable perspectives. This essay argues for positioning digital technology as a fuse link between the other two pillars. In e-governance, for example, technologies can provide a more comprehensive overview of current conditions and facilitate periodical updates. Training staff to use specific tools (only a few are able to access or work with the available datasets), maintaining or upgrading software, and managing large amounts of data can pose economic constraints. The use of technologies at the city level is therefore restricted to those who can afford the software, training, or outsourcing costs. Nevertheless, in advanced economies, these technological and digital climate solutions are overwhelmingly perceived as positive, but little systematic research on the unwanted consequences or socio-political and ethical concerns they may generate has been conducted (Popartan et al., 2022). Bias and assumptions can be in-built into urban governance simulations and applications, and not the least, the use of such tools can pose dangers of increased surveillance. Concerning participatory processes, the positives include educating citizens to use digital tools that allow them a more direct insight into the data (e.g. the use of home sensors detecting air pollution prompted public support for stronger governance response to tackling pollution in cities, see Pilla et al., 2021). However, the use of technologies and their impacts can be uneven across communities. Procedural and intergenerational justice issues are posed by the digital and language gap or other application features that may create difficulties in engaging more diverse user groups (e.g., of different ages, gender, or migrant communities). Overall, technology requires a more sensible approach than currently practised and addressing climate-neutral city aspects through smart technologies necessitates holistic strategy and leadership, policies, and plans that integrate bottom-up and top-down initiatives under a coherent urban vision (Komninos, 2016).

Proposed preliminary framework for an integrated approach

Previous studies have only analysed the concept of climate neutrality partially or sectorally, with scarce efforts for transdisciplinary integration (Huovila et al., 2022). Urban planning has a major role in integrating different urban systems and multiple sectors into consolidated spatial strategies and lifting systemic barriers to set long-term agendas for low-carbon and climate-neutral interventions for transformation (Paulsson, 2020; Shahani et al., 2022). However, links between territorial plans and climate policies are weak, as climate policies often focus on specific economic sectors, disregarding spatial relations (UNECE, 2011; da Costa et al., 2021; Santopietro and Scorza, 2021). Holistic systems thinking and new research frameworks are required for climate-neutral city transition (Huovila et al., 2022).

Considering multiple examples of public policy reports, grey, and academic literature, we contoured five dimensions of climate-neutral cities relevant to consider under an integrated planning perspective. We termed them as 1) Urban Nature, 2) Urban Mobility, 3) Buildings, 4) Energy, and 5) Circularity (see Figure 1). The first dimension of Urban Nature includes aspects of fresh air, clean water, healthy soil, biodiversity, food (see the European Green Deal, EC 2019; Huovila et al., 2022), and reflects calls for expansions of green spaces, forests, and urban habitat protection (see India’s NAPCC, 2008; UNECE, 2011). The dimensions of Urban Mobility, Buildings, and Energy concern prioritising more efficient public and alternative transport modes, energy-efficient buildings, cleaner energy and resilient industry, respectively (European Green Deal, 2019), reflecting calls for socio-technical transformation for long-term decarbonisation of these sectors (see CNCA, 2018; Huovila et al., 2022; Ravetz et al., 2021; Iran’s NCCO from 2017). The fifth dimension reflects water management and conservation of natural water areas, waste management, and circularity, towards closed loops of reducing, reusing, and recycling actions (see CNCA, 2018; Huovila et al., 2022; UNECE, 2011; India’s NAPCC ; Iran’s NCCO 2017).

Figure 1.

Integrated approach for climate-neutral cities based on five dimensions and three methodological pillars.

Employing integrated planning approaches could have more inclusive outcomes, whereas focusing on a single dimension may fail to achieve climate-neutral goals (Yigitcanlar and Kamruzzaman, 2018). While integrated approaches may urge action on all fronts, governments are usually limited in their resources to address multi-dimensional problems and have to be strategic by prioritising the issues to start with in their decision-making. For example, scholars observed that de-integration occurs when housing developments (Buildings dimension) are not matched with expansions of metro lines (Urban Mobility dimension), leading them to suggest de-integration by agreement², integration by stakeholder collaboration, and re-integration by the intervention (see Paulsson, 2020).

Policymakers may overlook truly rigorous, analytical multidisciplinary studies, preferring a linear approach to problem-solving, as opposed to the efforts needed for more complex socio-technical systemic transformation (see Ravetz et al., 2021). Not only do there exist divergences in the approach of policymakers vs researchers, but also institutional tensions between innovation and vested interests, and between long-term transition planning and short-term crisis management. Nonetheless, public sectors in advanced economies show an inclination to favour technological solutions (see Horizon Europe projects where close research-policy collaborations are formed around digitalisation, digital twins, or AI-enhanced decision support systems), suggesting that the proper use of technologies with input from citizens and multiple stakeholders could create a momentum for longer-term problem-solving.

While we put forth an integrated planning approach for climate-neutral cities where the three methodological pillars intersect each of the five dimensions (Figure 1), our preliminary framework allows smaller actions (e.g., on each dimension, methodological pillar, or inter-dimensional) that would fit into a grander piece of the climate-neutral puzzle. To illustrate this, we provide several operational examples in the next section.

Cross-disciplinary topics to operationalise the framework

We developed examples of research topics at the intersection of two dimensions, combining at least two methodological pillars to showcase cross-disciplinarity. The topics are primarily applicable to the European context, where foundational climate-neutral city work has already been advanced through interdisciplinary projects (H2020, Horizon Europe, and others), but still requires further innovation to make a difference on the ground.

Urban Nature & Circularity: Adequate plans and strategies connecting green spaces within cities are required to create recreational zones that enable high biodiversity. As post-pandemic demand for urban public green space continues (Lennon, 2021), incorporating nature-based solutions (NbS) to sustainably manage and restore ecosystems through revegetation, stormwater management, etc., should be realised through innovative scenarios that are also meaningful for citizens (Satterthwaite et al., 2020). For this, wider public participation is recommended (IPBES, 2019) (Topic 1.1 in Table 1). Scholars seek to bridge community, multiple other categories of stakeholders, and higher-level decision-making through participatory processes, to develop adequate evidence-based NbS policies (Mansur et al., 2022), but taking into account that NbS can produce “green gentrification” (Anguelovski and Corbera, 2023) is needed (Topic 1.2). Adaptation measures, either conventional or nature-based, have different impacts on the environment and different trade-offs. Particularly considering the role of technologies, modelling tools, algorithms, and machine learning can potentially simulate outcomes of different adaptation measures, expanding capacities to collect, monitor, and assess growing amounts of city environmental data (e.g., including in Urban Water Cycle management). So far research has remained superficial regarding the socio-political implications of these interventions (Topic 3.1).

Table 1.

Topics intersecting urban nature and circularity dimensions.

Interdimensional research topics		Methodological pillars and potential benefits
1.1	Employing citizen science to assess how urban nature can be incorporated for recovering and regreening ‘lost spaces’ (derelict, disused, or vacant sites) to result in publicly-accepted scenarios.	Participative+tech: Citizens are skilled with new tools and benefit from increased (repurposed) green spaces that serve their needs.
1.2	Identifying data needed for effective participatory planning to incorporate NbS strategies into just policy and planning towards novel governance approaches.	Participative+Governance+tech: tapping into the key innovation of digital participatory planning to promote wider citizen data-derived integration of NbS in cities.
1.3	Critically examining the assumptions and narratives built into AI and digital simulations and applications in urban environmental governance across different sectors (water, waste).	Governance+tech: testing potential biases in technological tools for urban governance; making assumptions visible.

Buildings & Energy infrastructure: Cities face challenges in supplying affordable yet sustainable high-quality housing, while densification policies for compact cities, along with higher energy efficiencies, are imperative (Antonini and Gaspari, 2022) (Topic 2.1 in Table 2). High-performance buildings entail greater energy standards, more expensive materials, and higher development costs which affect consumers financially and may exacerbate economic and carbon inequalities. This may also impact the energy poverty risk for different population groups (Fabbri and Gaspari, 2021) (Topic 2.2). How the State navigates the interests of industry vs citizens for affordable & sustainable housing or how their perspectives are included or excluded in policymaking remains unclear (Waldron, 2019). Despite progress in increasing energy efficiency in buildings, particularly framed around Nearly Zero Energy Buildings [NZEBs] and Positive Energy Buildings [PEBs] or Districts [PEDs], the renovation rate of the existing stock requires acceleration of energy transition in order to meet the 2030 and 2050 EU targets. It is also still underexplored how energy-efficient neighbourhood planning associates users’ behaviour, social acceptance, and lifestyles on the one hand, with energy transitions, the implementation of environmental policies, and infrastructure development on the other hand (Gaspari et al., 2022) (Topic 2.3).

Table 2.

Topics intersecting buildings and energy infrastructure dimensions.

Interdimensional research topics		Methodological pillars and potential benefits
2.1	Exploring tensions between sustainability-affordability ambitions by examining the role of sectoral interests and institutional barriers in housing governance, considering financial issues and energy poverty in decision support systems and frameworks for planning Renewable Energy Communities.	Governance+Tech: approaching sensitive or apparently conflicting outcomes (affordability vs. sustainability) with technology, in order to obtain a more comprehensive overview and prioritize resource allocation.
2.2	Assessing user benefits and governance barriers for PEBs and PEDs and providing new knowledge on social acceptance of energy infrastructure at the building and district scale.	Participative+Governance: exploring current limitations on implementations of low-energy solutions with both users and stakeholders for better transparency and to match better individual and community needs.
2.3	Optimising the saving potential of consolidated and innovative solutions with end users to explore their impact on microclimate, and thermal comfort conditions, followed by computing the performance results in matrices of energy solutions to develop suitable policy diagnostic tools.	Participative+Tech: collating participative results using technology to develop new tools, and obtain easy-to-read results linking end-users behaviours, policies, and derived impacts.

Urban Mobility & Urban Nature: Mobility politics comprise crucial trajectories towards climate-neutral cities, but there is no comprehensive overview of residents’ uptake of active and green travel in different contexts as resulting from participatory efforts (Topic 3.1 in Table 3). Car dependency is mitigated by alternative options of multimodality, with an overall goal of reducing traffic emissions while ensuring high mobility, flexibility, and freedom for residents (Culver, 2020). Yet, there are insufficiently understood financial implications, and scholars question whether e-mobility is the right solution socially and ecologically (Prause and Dietz, 2022) (Topic 3.2). Furthermore, while both urban nature and active mobility represent primary strategies in climate action, there is knowledge scarcity around NbS that can synergise with a sustainable mobility system and the resulting impacts. Linking active mobility with socio-ecological systems could become one of the super tipping points in research and practice via decision support systems (Topic 3.3).

Table 3.

Topics intersecting urban mobility and urban nature dimensions.

Interdimensional research topics		Methodological pillars and potential benefits
3.1	Effectiveness of participative tools (technological/ novel vs. traditional/ established) in adopting active and green travel in comparative contexts.	Participative + tech: testing to what extent novel tools aid in making participatory processes more efficient (or more difficult to access and engage with).
3.2	Simulating, co-producing scenarios, and analysing the social and ecological impacts of e-mobility while considering mobility justice.	Participative + governance + tech: using new tech to understand the impacts of new mobility futures while considering sensitive topics (i.e., justice) by engaging a wide diversity of users.
3.3	Assessing existing decision-making support tools and their potential to integrate active (micro) mobility with blue-green infrastructure in order to produce synergetic results.	Governance + tech: combining simulations with governance decision-making processes in intersecting costs and benefits of mobility and socio-ecological systems for a comprehensive overview.

As suggested in topics 1.1 to 3.3 (Tables 1, 2, and 3), multilayered benefits can be obtained by uniting participative and governance-led approaches with innovative technologies. Within the EU, widening the use of already acquired knowledge and making it understandable and useful for a larger group of users is the major barrier to climate-neutral cities and not the lack of climate-smart technologies per se (European Commission, 2020c). Increasing capacity for implementation and empowering larger groups of citizens with participatory techniques and tools for data collection, co-creation, and review could be targeted in developing nexus solutions (as we exemplified for affordable-sustainable housing or for ensuring an equitable transition to electric mobility to include vulnerable-to-exclusion groups). This would help in delivering more concrete guidelines for implementation (as for example, all energy-saving measures mention the end-users, but the citizens’ concerns are often the costs, which are not addressed by the guidelines). New technologies could also provide quick answers to different implementation scenarios through modelling or simulation; they may facilitate more direct cooperation between citizens, researchers, and local authorities, supporting public administrations to evolve from a traditional, narrow working culture to a cross-cutting, strategic, citizen-driven model. As we exemplified, GIS and other digital technologies can be used to tap into open data availability and processing for green mobility or energy-inclusive decision-making. Developing a critical lens to assess the systemic impact of AI tools and Digital Twins in digital climate scenarios and city building is needed, to understand the trade-offs between efficiency and personal autonomy in digital solutions (Popartan et al., 2022) and avoid the negative effects (increased surveillance, lack of accountability, workforce exclusion, discrimination, injustice, or impaired democratic quality). The importance of local social-technological-ecological systems has become more widely recognised (Kaae et al., 2019), but besides bringing the ‘human in the (technological) loop’, proactively testing technologies in practical implementations and assessing the social acceptance of derived solutions and policies are necessary. This will set the base for informing new but replicable city governance and systemic transformation towards climate neutrality. A cyclic process from governance to participation and back to governance is therefore needed, and technological tools could potentially enable it.

Conclusion

While rethinking the path to climate neutrality, we put forth a preliminary framework for integrated planning, combining threefold methodological pillars with fivefold sectoral dimensions for climate-neutral cities. We first analysed how the integration of top-down (governance) and bottom-up (participatory) approaches could be realised and fused through the use of technology, hence our three methodological pillars encompass: 1. citizen engagement & participation to focus on community perspectives, acceptance, and uptake of climate-neutral solutions; 2. city governance decision-making support to bring about new governance models and policymaking processes linked to institutions that can create opportunities (vs barriers) for viable climate-neutral projects; 3. Digital Tech to ‘glue’ the first two pillars and increase efficiency (but not overpower them). We particularly debated the role of technological solutions in climate-neutral city research, which are now a prerequisite to manage large data volumes (though underdeveloped in city planning), but which on their own are insufficient to lead to meaningful impact and new policy uptake. A proper three-pillar integration would contribute, for instance, to the new Digital Europe program for ‘twin green and digital transformation’ (European Commission, 2020a) or other similar programs in other parts of the world (e.g. China’s Digital urbanisation). After considering the five key dimensions of climate-neutral cities (urban nature; urban mobility; buildings; energy; circularity), we debated the role of integrated planning in capturing cross-dimensional integration.

Examples of mixed approaches and cross-dimensional topics to operationalise the framework have been provided (in Tables 1, 2, and 3), although they are more applicable to the EU and the Global North (as access to technology can, for instance, be problematic in the Global South). While we focused our analyses on the European context, preliminary comparisons with other populous economies suggest that while the climate problem is universal and global, solutions might need to be particular and local, in a sequencing of actions that can differ contextually. Our preliminary framework can be used to determine, in the first instance, neglected aspects of climate neutrality in different contexts. For example, in China, while governance and tech levels are well advanced, more emphasis and attention should be placed on the participative pillar. In the EU or US, where technological solutions have been highly emphasised, rebalancing these by levelling up the other two pillars of participation and governance is necessary.

We conducted this multi-disciplinary, multi-country study to generate cutting-edge research agendas. Framed under a common research project, which benefited all academics involved, this helped with obtaining consensus. While challenges and disagreements occasionally occurred (ranging from a desired emphasis on social justice discourses to a refrain from using technologies), having a moderator to compile and combine the different viewpoints helped converge these into a commonly accepted direction of work. Our exploratory work was overall conducted in a relatively short time span of 12 weekly meetings with the academics, combined with a non-systematic but focused literature search. Although it identifies key gaps in the literature for which it proposes further research, the essay remains on a rather general level, which represents a limitation. Furthermore, we only gave three illustrative examples at the intersection of two climate-neutral city dimensions, while there are many more topics to consider, and other means to explore integrated research (for example, by mixing spatial scales, or testing altogether the elicited nature values, social values, and financial implications). These can be considered in the future expansion and development of this preliminary framework. Similar future rounds of collaborative research can also concern wider cross-continental net-zero approaches or focus more in-depth on developing measurement indicators and weightings for the integration of specific climate-neutral city dimensions and methodologies.

Footnotes

Acknowledgements

We would like to acknowledge the participation of all 16 academics involved in C-NEWTRAL (Horizon MSCA-DN project proposal), some of whom would have participated in more than one group conversation in our weekly series, sparking the inspiration for some of the topics presented in this paper. Special thanks go to Prof. Francesco Pilla (UCD) and Prof. Geraint Ellis (QUB) for advising in the initiation of such discussions in the first place. We would also like to thank Prof. Bishwapriya Sanyal, this journal’s essay editor, for his valuable insights.

Declaration of conflicting interests

The author(s) declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.

Funding

The author(s) disclosed receipt of the following financial support for the research, authorship, and/or publication of this article: Coordination support for developing the C-NEWTRAL proposal was received from Enterprise Ireland (EI), funder reference CS20221439.

Notes

Author biographies

Aura Istrate is an Assistant Professor in the School or Architecture, Planning and Environmental Policy at University College Dublin, Ireland. Dr. Istrate is concerned with interdisciplinary research on sustainable urbanism, smart communities, active mobility, and mainstreaming nature-based solutions in transitioning to climate-neutral cities. She is the Primary Coordinator of C-NEWTRAL, and co-leader of another Horizon Europe project, REALLOCATE, both informing climate-neutral transitions. She has practical international experience in urban design and planning in European and Asian countries.

Lucia Alexandra Popartan is an environmental social scientist and Juan de la Cierva postdoctoral researcher at the University of Girona, LEQUIA research group. In her work, she has explored the contested politics of water and environmental technologies, taking a critical lens to nature-based solutions, circular economy, or digitalization. Her research interests include environmental justice, degrowth, anti-privatization movements, and the water-food-energy nexus in cities.

Jeremy Auerbach is an Assistant Professor in Geography at University College Dublin. Dr. Auerbach is a social scientist and quantitative methodologist working for community organizations to evaluate downstream effects of urban planning and redevelopment, including health disparities, housing and environmental justice, and transportation accessibility.

Jacopo Gaspari is an Associate Professor in Architectural Technology at the Department of Architecture of the University of Bologna. He serves as a Delegate to the International Relations of Architecture for the Creative Practice and Landscape MS international programme. His research activity focuses on building renovation and retrofitting, energy efficiency and sustainability, adaptation and climate-responsive strategies, urban transition and city regeneration, cooperating with multiple international research institutions and contributing to multiple research projects under different funding schemes.

Mohammad Reza Tavangar is a postdoctoral research fellow at University College Dublin. He holds a PhD in planning from the University of Art, Iran and has over ten years of experience in planning practice in Iran. His area of research is power, public interest and socio-political dimensions of planning and environmental policy, particularly in the context of the Global South. He is currently engaged in a project funded by the Irish Research Council, to analyse and evaluate Ireland's urban policies towards compact growth.

References

Anguelovski

Corbera

(2023) Integrating justice in nature-based solutions to avoid nature-enabled dispossession. Ambio 52(1): 45–53. DOI: 10.1007/s13280-022-01771-7.

Antonini

Gaspari

(2022) Architectures for Next Generation EU Cities. Challenges, Key Drivers, and Research Trends. Franco Angeli.

Auerbach

Blackburn

Barton

Meng

Zegura

(2020) Coupling data science with community crowdsourcing for urban renewal policy analysis: An evaluation of Atlanta’s Anti-Displacement Tax Fund. Environment and Planning B: Urban Analytics and City Science 47(6): 1081–1097. DOI: 10.1177/2399808318819847.

Bouregh

Maniruzzaman

Abubakar

Alshihri

Alrawaf

Ahmed

SMS

Boureggah

(2023) Investigating the prospect of e-participation in urban planning in Saudi Arabia. Cities 134: 104186. DOI: 10.1016/j.cities.2022.104186.

Carbon Neutral Cities Alliance (CNCA) (2018) GAME CHANGERS: Bold Actions by Cities to Accelerate Progress Toward Carbon Neutrality. http://carbonneutralcities.org/wp-content/uploads/2018/09/CNCA-Game-Changers-Report-2018.pdf

Castán Broto

Westman

(2020) Ten years after Copenhagen: Reimagining climate change governance in urban areas. WIREs Climate Change 11(4). DOI: 10.1002/wcc.643.

Chen

Zhang

Han

(2021) Climate neutral in agricultural production system: a regional case from China. Environmental Science and Pollution Research 28(25): 33682–33697. DOI: 10.1007/s11356-021-13065-8.

Culver

(2020) Automobilities International Encyclopedia of Human Geography. Elsevier, pp. 255–263. DOI: 10.1016/B978-0-08-102295-5.10238-0.

da Costa

Shiraishi Neto

da Silva

de Souza

IDNT

(2021) Society and environment in the territorial planning of the Brazilian amazon. Canadian Journal of Latin American and Caribbean Studies / Revue Canadienne Des Études Latino-Américaines et Caraïbes 46(1): 38–56. DOI: 10.1080/08263663.2021.1855865.

10.

de Bruin

Morgan

(2019) Reflections on an interdisciplinary collaboration to inform public understanding of climate change, mitigation, and impacts. Proceedings of the National Academy of Sciences 116(16): 7676–7683. DOI: 10.1073/pnas.1803726115.

11.

Daniel

Pettit

(2021) Digital disruption and planning – use of data and digital technology by professional planners, and perceptions of change to planning work. Australian Planner 57(1): 50–64. DOI: 10.1080/07293682.2021.1920995.

12.

Ellis

Hume

Barry

Curry

(2014) EPA Research Report: Catalysing and Characterising Transition.

13.

European Commission (2019) The European Green Deal. COM/2019/640 final . https://eur-lex.europa.eu/legal-content/EN/TXT/?uri=COM:2019:640:FIN

14.

European Commission (2020a) Shaping Europe’s digital future. https://eur-lex.europa.eu/legal-content/en/TXT/?uri=CELEX:52020DC0067

15.

European Commission (2020b) EU Missions in Horizon Europe. https://research-and-innovation.ec.europa.eu/funding/funding-opportunities/funding-programmes-and-open-calls/horizon-europe/eu-missions-horizon-europe_en

16.

European Commission Directorate-General for Research and Innovation Gronkiewicz-Waltz

Larsson

Boni

Krogh Andersen

Ferrao

Forest

Jordan

Lenz

Lumbreras

Nicolaides

Reiter

Russ

Sulling

Termont

Vassilakou

(2020c) 100 climate-neutral cities by 2030 - by and for the citizens : report of the mission board for climate-neutral and smart cities. Publications Office. DOI: 10.2777/46063.

17.

Fabbri

Gaspari

(2021) Mapping the energy poverty: A case study based on the energy performance certificates in the city of Bologna. Energy and Buildings 234: 110718. DOI: 10.1016/j.enbuild.2021.110718.

18.

Zhang

(2017) Planning for sustainable cities? A comparative content analysis of the master plans of eco, low-carbon and conventional new towns in China. Habitat International 63: 55–66. DOI: 10.1016/j.habitatint.2017.03.008.

19.

Gaspari

Antonini

Gianfrate

Mehmeti

(2022) Mapping community environmental capacity to support climate responsive transition. DOI: 10.36253/techne-12135.

20.

Gustafsson

Hermelin

Smas

(2019) Integrating environmental sustainability into strategic spatial planning: the importance of management. Journal of Environmental Planning and Management 62(8): 1321–1338. DOI: 10.1080/09640568.2018.1495620.

21.

Heiskanen

Jalas

Rinkinen

Tainio

(2015) The local community as a “low-carbon lab”: Promises and perils. Environmental Innovation and Societal Transitions 14: 149–164. DOI: 10.1016/j.eist.2014.08.001.

22.

Heynen

(2016) Urban political ecology II. Progress in Human Geography 40(6): 839–845. DOI: 10.1177/0309132515617394.

23.

Hillier

(2016). In: Albrechts

Bolducci

Hillier

(eds), Strategic spatial planning in uncertainty or planning indeterminate futures? A critical review. 1st Edition. Routledge. https://www.taylorfrancis.com/chapters/edit/10.4324/9781315679181-15/strategic-spatial-planning-uncertainty-planning-indeterminate-futures-critical-review-jean-hillier

24.

Huovila

Siikavirta

Antuña Rozado

Rökman

Tuominen

Paiho

Hedman

Ylén

(2022) Carbon-neutral cities: Critical review of theory and practice. Journal of Cleaner Production 341: 130912. DOI: 10.1016/j.jclepro.2022.130912.

25.

IPBES . (2019) The global assessment report on biodiversity and ecosystem services of the Intergovernmental Science‐Policy Platform on Biodiversity and Ecosystem Services. Population and Development Review 45(3): 680–681).

26.

IPCC (2022) Global Warming of 1.5°C. Cambridge University Press. DOI: 10.1017/9781009157940.

27.

Jackson

(2022) Local planning cultures? What Glasgow, Melbourne and Toronto planners say. International Planning Studies 27(3): 284–301. DOI: 10.1080/13563475.2022.2043148.

28.

Joshi

Rao

(2017) Who Should Be at the Top of Bottom-Up Development? A Case Study of the National Rural Livelihoods Mission in Rajasthan, India. https://openknowledge.worldbank.org/bitstream/handle/10986/26246/WPS7996.pdf?sequence=1&isAllowed=y

29.

Juhola

Seppälä

Klein

(2020) Participatory experimentation on a climate street. Environmental Policy and Governance 30(6): 373–384. DOI: 10.1002/eet.1900.

30.

Kaae

Holm

Caspersen

Gulsrud

(2019) Nature Park Amager – examining the transition from urban wasteland to a rewilded ecotourism destination. Journal of Ecotourism 18(4): 348–367. DOI: 10.1080/14724049.2019.1601729.

31.

Komninos

(2016) Smart environments and smart growth: connecting innovation strategies and digital growth strategies. International Journal of Knowledge-Based Development 7(3): 240. DOI: 10.1504/IJKBD.2016.078536.

32.

Kuramochi

Nascimento

Moisio

den Elzen

Forsell

van Soest

Tanguy

Gonzales

Hans

Jeffery

Fekete

Schiefer

de Villafranca Casas

De Vivero-Serrano

Dafnomilis

Roelfsema

Höhne

(2021) Greenhouse gas emission scenarios in nine key non-G20 countries: An assessment of progress toward 2030 climate targets. Environmental Science & Policy 123: 67–81. DOI: 10.1016/j.envsci.2021.04.015.

33.

Laine

Heinonen

Junnila

(2020) Pathways to Carbon-Neutral Cities Prior to a National Policy. Sustainability 12(6): 2445. DOI: 10.3390/su12062445.

34.

Lennon

(2021) Planning and the Post-Pandemic City. Planning Theory & Practice: 1–4. DOI: 10.1080/14649357.2021.1960733.

35.

Mansur

McDonald

Güneralp

Kim

de Oliveira

JAP

Callaghan

Hamel

Kuiper

Wolff

Liebelt

Martins

Elmqvist

Pereira

(2022) Nature futures for the urban century: Integrating multiple values into urban management. Environmental Science & Policy 131: 46–56. DOI: 10.1016/j.envsci.2022.01.013.

36.

Mimura

Pulwarty

Duc

Elshinnawy

Redsteer

Huang

Nkem

Rodriguez

RAS

Moss

Vergara

Darby

Kato

(2015) Adaptation planning and implementation. Climate Change 2014 Impacts, Adaptation and Vulnerability: Part A: Global and Sectoral Aspects 898: 869. DOI: 10.1017/CBO9781107415379.020.

37.

National Climate Change Office (Iran) (2017) National Strategic Plan on Climate Change (in Persian). https://www.doe.ir/portal/file/?970562/tnc.pdf

38.

Olivier

Peters

JAH

(2020) Trends in Global CO2 and Total Greenhouse Gas Emissions: 2019 Report. https://www.pbl.nl/sites/default/files/downloads/pbl-2020-trends-in-global-co2-and-total-greenhouse-gas-emissions-2019-report_4068.pdf

39.

Parks

(2020) Promises and Techno-Politics: Renewable Energy and Malmö’s Vision of a Climate-Smart City. Science as Culture 29(3): 388–409. DOI: 10.1080/09505431.2019.1705274.

40.

Parija

Bobhate

(2022) Mitigating the Adverse Impact of Climate Change: An Indian Perspective. SBV Journal of Basic, Clinical and Applied Health Science 5(4): 87. DOI: 10.5005/jp-journals-10082-03172.

41.

Paulsson

(2020) The city that the metro system built: Urban transformations and modalities of integrated planning in Stockholm. Urban Studies 57(14): 2936–2955. DOI: 10.1177/0042098019895231.

42.

Pilla

Schaaf

Markham

(2021) Citizen science monitoring of air pollution: Challenges and experiences from the six iSCAPE living labs. In: Monitoring Environmental Contaminants. Elsevier, 109–122. DOI: 10.1016/B978-0-444-64335-3.00006-2.

43.

Popartan

Cortés

Garrido-Baserba

Verdaguer

Poch

Gibert

(2022) The Digital Revolution in the Urban Water Cycle and Its Ethical–Political Implications: A Critical Perspective. Applied Sciences 12(5): 2511. DOI: 10.3390/app12052511.

44.

Prause

Dietz

(2022) Just mobility futures: Challenges for e-mobility transitions from a global perspective. Futures 141: 102987. DOI: 10.1016/j.futures.2022.102987.

45.

Preston

Rickards

Fünfgeld

Keenan

(2015) Toward reflexive climate adaptation research. Current Opinion in Environmental Sustainability 14: 127–135. DOI: 10.1016/j.cosust.2015.05.002.

46.

Prime Minister’s Council on Climate Change (Government of India). (2008). India: National action plan on climate change (NAPCC). Available at: https://www.preventionweb.net/publication/india-national-action-plan-climate-change-napcc

47.

Ravetz

Neuvonen

Mäntysalo

(2021) The new normative: synergistic scenario planning for carbon-neutral cities and regions. Regional Studies 55(1): 150–163. DOI: 10.1080/00343404.2020.1813881.

48.

Robertson

Mousavian

(2022) The carbon capture crux: Lessons learned. September, 1–79.

49.

Sanchez

Shumway

Gordner

Lim

(2022) The prospects of artificial intelligence in urban planning. International Journal of Urban Sciences: 1–16. DOI: 10.1080/12265934.2022.2102538.

50.

Santopietro

Scorza

(2021) The Italian Experience of the Covenant of Mayors: A Territorial Evaluation. Sustainability 13(3): 1289. DOI: 10.3390/su13031289.

51.

Satterthwaite

Archer

Colenbrander

Dodman

Hardoy

Mitlin

Patel

(2020) Building Resilience to Climate Change in Informal Settlements. One Earth 2(2): 143–156. DOI: 10.1016/j.oneear.2020.02.002.

52.

Schipper

ELF

Dubash

Mulugetta

(2021) Climate change research and the search for solutions: rethinking interdisciplinarity. Climatic Change 168(3–4): 18. DOI: 10.1007/s10584-021-03237-3.

53.

Schönwälder

(2021) Engaging citizens to boost climate neutrality and greater circularity: opportunities and challenges for research and innovation. Clean Technologies and Environmental Policy 23(2): 483–489. DOI: 10.1007/s10098-020-01902-2.

54.

Shahani

Pineda-Pinto

Frantzeskaki

(2022) Transformative low-carbon urban innovations: Operationalizing transformative capacity for urban planning. Ambio 51(5): 1179–1198. DOI: 10.1007/s13280-021-01653-4.

55.

Sharma

(2022) These are the challenges facing India’s net-zero target. World Economic Forum. https://www.weforum.org/agenda/2022/09/net-zero-challenges-india-target

56.

Swyngedouw

(2011) Depoliticized Environments: The End of Nature, Climate Change and the Post-Political Condition. Royal Institute of Philosophy Supplement, 69, 253–274. DOI: 10.1017/S1358246111000300.

57.

UNEP (United Nations Environment Programme) (2022) Emissions Gap Report 2022: The Closing Window - Climate crisis calls for rapid transformation of societies. https://www.unep.org/resources/emissions-gap-report-2022

58.

United Nations (2019) World Urbanization Prospects: The 2018 Revision. ST/ESA/SER.A/420) https://population.un.org/wup/Publications/Files/WUP2018-Report.pdf

59.

United Nations Economic Commission for Europe, UNECE (2011) Climate Neutral Cities. https://unece.org/fileadmin/DAM/hlm/documents/Publications/climate.neutral.cities_e.pdf

60.

Waldron

(2019) Financialization, Urban Governance and the Planning System: Utilizing ‘Development Viability’ as a Policy Narrative for the Liberalization of Ireland’s Post‐Crash Planning System. International Journal of Urban and Regional Research 43(4): 685–704. DOI: 10.1111/1468-2427.12789.

61.

Wang

Huang

(2021) Interpretation of Guiding Opinions on Green and Low-Carbon Circular Development (State Council, February 2021). https://greenfdc.org/interpretation-of-guiding-opinions-on-green-and-low-carbon-circular-development-state-council-february-2021/

62.

Wang

Chen

Xiong

(2023) How to Achieve Carbon Neutrality in Cities? Evidence from China’s Low-Carbon Cities Development. International Journal of Environmental Research and Public Health 20(3): 2121. DOI: 10.3390/ijerph20032121.

63.

Yigitcanlar

Kamruzzaman

(2018) Does smart city policy lead to sustainability of cities? Land Use Policy 73: 49–58. DOI: 10.1016/j.landusepol.2018.01.034.

64.

Zhang

(2012) Research on building a low-carbon transportation system in Tianjin. Economics and Management Science. 10. F572.88; F205. Available at: https://kns.cnki.net/KCMS/detail/detail.aspx?dbname=CMFD2012&filename=1012401732.nh

Collaborative research for transitioning to Climate-Neutral Cities – contouring a prospective framework for integrated planning

Abstract

Keywords

Introduction

Methods

Urban policies for climate-neutral action in different contexts

Three pillars of action for climate-neutral cities

The bottom-up/participatory pillar

The top-down/governance pillar

The link/digital tech pillar

Proposed preliminary framework for an integrated approach

Cross-disciplinary topics to operationalise the framework

Conclusion

Footnotes

Acknowledgements

Declaration of conflicting interests

Funding

Notes

Author biographies

References