TY - JOUR
T1 - From sectoral to integrative action situations
T2 - An institutional perspective on the energy transition implementation in the Netherlands
AU - Warbroek, Beau
AU - Holmatov, Bunyod
AU - Vinke-de Kruijf, Joanne
AU - Arentsen, Maarten
AU - Shakeri, Moozhan
AU - de Boer, C.
AU - Flacke, J.
AU - Dorée, André
N1 - Funding Information:
At the operational level, the integrative potential of biogas from manure is acknowledged by actors who are working either on the energy transition or on nitrogen reduction and sustainable agriculture (lower half of Fig. ). As actors and action situations are separated, both action situations are far from mutually reinforcing. While the potential contribution of biogas production by manure digestion is acknowledged by actors, this has not yet resulted in a systematic and structured integrative approach. Biogas production initiatives are still ad hoc initiatives of individual farmers. In the action situation of such initiatives, the individual farmer, the network company, consultants and the municipality work together to realize the project technically and financially, without taking into account the integrative potential of biogas production and nitrogen reduction and enhancing sustainable agriculture. The financial part of projects is particularly challenging because of the lack of public financial support of manure digestion. The driver of those initiatives, and thus the involved scope rule, is not so much the energy transition in the country side, but rather sustaining farming activities and financially exploiting the farm’s manure surplus. The nitrogen reduction potential is completely neglected by these initiatives. Another reason for this is that nitrogen reduction has no monetary value (which points to the payoff rule) that can be added to the business case. According to interviewees, developing a biogas project is already highly complicated in itself and including the N-reduction potential in project development would increase complexities and would require additional expertise to the existing action arena.
Publisher Copyright:
© 2022, The Author(s).
Financial transaction number:
2500048098
PY - 2023/1
Y1 - 2023/1
N2 - The interlinked nature of today’s societal challenges asks for integrative approaches. The energy transition is an especially impactful challenge and presents a compelling opportunity to pursue integration, as it requires changes to space, landscape, infrastructure and organizations at different scales. While the added value of integrative approaches that address the energy transition alongside other societal challenges is widely acknowledged, it is not the status quo. The aim of this study is to uncover the institutional barriers to integration and suggest possibilities for redesign. The paper sheds light on a hitherto relatively understudied phase of integration, namely implementation. Two illustrative cases for energy transition integration are discussed; (i) sustainable residential heating combined with climate adaptation in the urban context, and (ii) biogas production from livestock manure for rural residential heating and nitrogen reduction in the Netherlands. Inspired by the Institutional Analysis and Development framework (IAD) and networks of action situations (NAS) concept, the study shows that in the context of energy transition integration, action situations are pillarized with incidental interactions happening between sectors and across scales. The rules that govern actor interactions stem from sectoral institutional arrangements and produce sectoral action situations. Factors that especially obstruct integration are financial streams, budgeting and designated task responsibilities of actors that favour sectoral, one-dimensional projects. Actors interact in sectoral action situations and struggle to establish links to plan for more integrative outcomes. As a way forward, the study illustrates how rules can be redesigned to create integrative action situations and what mechanisms may help to achieve this in practice.
AB - The interlinked nature of today’s societal challenges asks for integrative approaches. The energy transition is an especially impactful challenge and presents a compelling opportunity to pursue integration, as it requires changes to space, landscape, infrastructure and organizations at different scales. While the added value of integrative approaches that address the energy transition alongside other societal challenges is widely acknowledged, it is not the status quo. The aim of this study is to uncover the institutional barriers to integration and suggest possibilities for redesign. The paper sheds light on a hitherto relatively understudied phase of integration, namely implementation. Two illustrative cases for energy transition integration are discussed; (i) sustainable residential heating combined with climate adaptation in the urban context, and (ii) biogas production from livestock manure for rural residential heating and nitrogen reduction in the Netherlands. Inspired by the Institutional Analysis and Development framework (IAD) and networks of action situations (NAS) concept, the study shows that in the context of energy transition integration, action situations are pillarized with incidental interactions happening between sectors and across scales. The rules that govern actor interactions stem from sectoral institutional arrangements and produce sectoral action situations. Factors that especially obstruct integration are financial streams, budgeting and designated task responsibilities of actors that favour sectoral, one-dimensional projects. Actors interact in sectoral action situations and struggle to establish links to plan for more integrative outcomes. As a way forward, the study illustrates how rules can be redesigned to create integrative action situations and what mechanisms may help to achieve this in practice.
KW - UT-Hybrid-D
KW - ITC-ISI-JOURNAL-ARTICLE
KW - ITC-HYBRID
U2 - 10.1007/s11625-022-01272-2
DO - 10.1007/s11625-022-01272-2
M3 - Article
SN - 1862-4065
VL - 18
SP - 97
EP - 114
JO - Sustainability Science
JF - Sustainability Science
IS - 1
ER -