E.J.L. Chappin
Please Note
23 records found
1
Residential Demand Response
Exploring household reliability
Evaluating the local impacts of an Energy Island project under uncertainty
A case study of Bornholm Energy Island
To answer this, a TIMES energy system model of Bornholm's electricity and district heating sectors was built and structured around the XLRM framework, mapping exogenous uncertainties and local policy levers identified through literature review and consultation with the Municipality of Bornholm and its utility operator, BEOF. Ten scenarios were constructed by systematically varying the Energy Island's local grid connection, the reliability of Bornholm's existing import cable to Sweden, onshore wind expansion, and waste heat integration, then evaluated using a structured scenario comparison.
Results show that the Energy Island does not accelerate Bornholm's decarbonization, which is already on track through electrification, but produces the most significant impact on energy security, eliminating dependence on the island's unreliable Sweden cable from 2035 onward, provided a local grid connection is secured. Affordability gains are concentrated at the utility level, with benefits reaching residents contingent on tariff design and electricity market structure. Without a local connection, Bornholm risks becoming a passive corridor for international power flows, hosting major infrastructure without capturing its benefits. Six policy recommendations are proposed, prioritizing the local grid connection, waste heat capture, and maintained local generation capacity as a hedge against project delays. The findings offer a replicable framework for energy peripheries navigating the tension between centrally driven infrastructure and local energy ambitions. ...
To answer this, a TIMES energy system model of Bornholm's electricity and district heating sectors was built and structured around the XLRM framework, mapping exogenous uncertainties and local policy levers identified through literature review and consultation with the Municipality of Bornholm and its utility operator, BEOF. Ten scenarios were constructed by systematically varying the Energy Island's local grid connection, the reliability of Bornholm's existing import cable to Sweden, onshore wind expansion, and waste heat integration, then evaluated using a structured scenario comparison.
Results show that the Energy Island does not accelerate Bornholm's decarbonization, which is already on track through electrification, but produces the most significant impact on energy security, eliminating dependence on the island's unreliable Sweden cable from 2035 onward, provided a local grid connection is secured. Affordability gains are concentrated at the utility level, with benefits reaching residents contingent on tariff design and electricity market structure. Without a local connection, Bornholm risks becoming a passive corridor for international power flows, hosting major infrastructure without capturing its benefits. Six policy recommendations are proposed, prioritizing the local grid connection, waste heat capture, and maintained local generation capacity as a hedge against project delays. The findings offer a replicable framework for energy peripheries navigating the tension between centrally driven infrastructure and local energy ambitions.
Rethinking Flexible Connection Agreements
A contract to property-based multi value evaluation of flexible grid connection agreements for utility-scale battery storage in the Netherlands
An exploratory sequential research design is adopted, combining qualitative institutional analysis with quantitative policy evaluation. First, 33 Dutch regulatory and stakeholder documents are analysed to identify recurring institutional frictions, which are synthesised into three structural tensions: temporal misalignment, asymmetric risk and value allocation, and a disconnect between operational control and financial responsibility. These tensions are subsequently operationalised as four contractual design properties: compensation structure, firmness, volume orientation, and directive control. Their effects are evaluated using a Mixed-Integer Linear Programming (MILP) Policy Testbed that simulates the operation of a 10 MW / 20 MWh utility-scale BESS across 200 independent Monte Carlo market realisations. The evaluation covers four existing Dutch flexible connection agreements, the Alternative Transport Right (ATR85), Capacity Limiting Contract (CBC), Capacity Steering Contract (CSC), and Time-Based Transport Right (TBTR), together with two prospective contract designs, Volume Bound and Firmness Gradient, developed to isolate the independent effects of individual contractual properties.
The results demonstrate that the principal barrier to battery bankability lies upstream of contract design itself. The high-voltage transport tariff alone absorbs approximately 70% of gross market revenues, rendering the unconstrained benchmark structurally non-bankable. Among the evaluated agreements, only the Capacity Limiting Contract consistently restores financial viability. However, it achieves this through a compensation coverage ratio of up to 1,596% of demonstrated operational risk, indicating that bankability is restored through financial transfers sufficiently large to offset the underlying tariff burden rather than through proportionate risk compensation. By contrast, fixed tariff-discount arrangements, particularly the Time-Based Transport Right, remain financially unviable because rigid transport windows conflict with high-value market opportunities.
Beyond financial performance, no single contractual design property simultaneously optimises all evaluation dimensions. Directive control, implemented through the Capacity Steering Contract, delivers the strongest congestion alignment but depends critically on accurate DSO forecasting and activation timing. Volume-oriented arrangements reduce battery degradation and extend operational lifetime, while their contribution to congestion management is regime dependent, improving outcomes in urban, demand-driven networks but potentially worsening them in rural, generation-driven systems. Overall, the findings demonstrate that the effectiveness of flexible connection agreements is determined by their underlying design properties rather than by contractual labels alone. More fundamentally, they indicate that existing agreements are compensating for structural shortcomings in the Dutch grid tariff architecture, suggesting that the greatest opportunity for future reform lies in grid-access pricing rather than incremental contract redesign. ...
An exploratory sequential research design is adopted, combining qualitative institutional analysis with quantitative policy evaluation. First, 33 Dutch regulatory and stakeholder documents are analysed to identify recurring institutional frictions, which are synthesised into three structural tensions: temporal misalignment, asymmetric risk and value allocation, and a disconnect between operational control and financial responsibility. These tensions are subsequently operationalised as four contractual design properties: compensation structure, firmness, volume orientation, and directive control. Their effects are evaluated using a Mixed-Integer Linear Programming (MILP) Policy Testbed that simulates the operation of a 10 MW / 20 MWh utility-scale BESS across 200 independent Monte Carlo market realisations. The evaluation covers four existing Dutch flexible connection agreements, the Alternative Transport Right (ATR85), Capacity Limiting Contract (CBC), Capacity Steering Contract (CSC), and Time-Based Transport Right (TBTR), together with two prospective contract designs, Volume Bound and Firmness Gradient, developed to isolate the independent effects of individual contractual properties.
The results demonstrate that the principal barrier to battery bankability lies upstream of contract design itself. The high-voltage transport tariff alone absorbs approximately 70% of gross market revenues, rendering the unconstrained benchmark structurally non-bankable. Among the evaluated agreements, only the Capacity Limiting Contract consistently restores financial viability. However, it achieves this through a compensation coverage ratio of up to 1,596% of demonstrated operational risk, indicating that bankability is restored through financial transfers sufficiently large to offset the underlying tariff burden rather than through proportionate risk compensation. By contrast, fixed tariff-discount arrangements, particularly the Time-Based Transport Right, remain financially unviable because rigid transport windows conflict with high-value market opportunities.
Beyond financial performance, no single contractual design property simultaneously optimises all evaluation dimensions. Directive control, implemented through the Capacity Steering Contract, delivers the strongest congestion alignment but depends critically on accurate DSO forecasting and activation timing. Volume-oriented arrangements reduce battery degradation and extend operational lifetime, while their contribution to congestion management is regime dependent, improving outcomes in urban, demand-driven networks but potentially worsening them in rural, generation-driven systems. Overall, the findings demonstrate that the effectiveness of flexible connection agreements is determined by their underlying design properties rather than by contractual labels alone. More fundamentally, they indicate that existing agreements are compensating for structural shortcomings in the Dutch grid tariff architecture, suggesting that the greatest opportunity for future reform lies in grid-access pricing rather than incremental contract redesign.
Unlocking Behavioural Household Flexibility in Dutch Distribution Grids
A Behaviour-Informed Agent-Based Analysis of EV Home Charging Allocation and Load Shifting under Congestion
Powering the Dutch Greenhouse Energy Transition
Design of a Spectral-filtering agriphotovoltaic (APV) based sustainable multi-commodity energy hub and assessment of grid support, self-sufficiency and economic performance using Python for Power System Analysis (PyPSA)
A sustainable multi-commodity energy hub combining spectral-filtering APV, a battery, geothermal heat, thermal storage, a heat pump, and direct air capture was modelled in Python for Power System Analysis (PyPSA) for a 5.2 ha greenhouse at Koppert Cress in Monster, the Netherlands. The system was built up in three steps: an electrical system with APV and a battery energy storage system (BESS), a heating system adding geothermal heat, thermal storage, and a heat pump, and the full energy hub adding direct air capture with liquid CO\textsubscript{2} storage. Each configuration was evaluated on three key performance indicators mirroring the CHP's functions: Economic Performance, Self-Sufficiency, and Grid Support, the latter based on the imbalance settlement data of the Dutch grid operator. Evaluation was done using Modelling to Generate Alternatives with 5\% and 10\% cost slack, a rolling-horizon optimisation, and a sensitivity analysis on the geothermal capacity and the grid import limit.
The hub can supply the greenhouse's electricity, heat, and CO\textsubscript{2} demand without natural gas. The optimised battery raises the simple self-consumption of the APV electricity from 20.8\% to 90.2\%. Self-sufficiency reaches 16.4\% at the cost-optimal dispatch and 27.0\% within a 5\% cost increase, while the weighted grid alignment can be improved by 34.7\% within the same budget. Economic performance is the main barrier: the APV alone does not pay back within its lifetime, although the combination with the battery pays back in 19.2 years. The hub can therefore take over the CHP's core functions, but mainly when its grid support is actively valued. While these results reflect a single greenhouse, crop, and modelled year, they provide a quantified indication of how sustainable multi-commodity hubs can replace the CHP. ...
A sustainable multi-commodity energy hub combining spectral-filtering APV, a battery, geothermal heat, thermal storage, a heat pump, and direct air capture was modelled in Python for Power System Analysis (PyPSA) for a 5.2 ha greenhouse at Koppert Cress in Monster, the Netherlands. The system was built up in three steps: an electrical system with APV and a battery energy storage system (BESS), a heating system adding geothermal heat, thermal storage, and a heat pump, and the full energy hub adding direct air capture with liquid CO\textsubscript{2} storage. Each configuration was evaluated on three key performance indicators mirroring the CHP's functions: Economic Performance, Self-Sufficiency, and Grid Support, the latter based on the imbalance settlement data of the Dutch grid operator. Evaluation was done using Modelling to Generate Alternatives with 5\% and 10\% cost slack, a rolling-horizon optimisation, and a sensitivity analysis on the geothermal capacity and the grid import limit.
The hub can supply the greenhouse's electricity, heat, and CO\textsubscript{2} demand without natural gas. The optimised battery raises the simple self-consumption of the APV electricity from 20.8\% to 90.2\%. Self-sufficiency reaches 16.4\% at the cost-optimal dispatch and 27.0\% within a 5\% cost increase, while the weighted grid alignment can be improved by 34.7\% within the same budget. Economic performance is the main barrier: the APV alone does not pay back within its lifetime, although the combination with the battery pays back in 19.2 years. The hub can therefore take over the CHP's core functions, but mainly when its grid support is actively valued. While these results reflect a single greenhouse, crop, and modelled year, they provide a quantified indication of how sustainable multi-commodity hubs can replace the CHP.
Unfolding Futures in Feedback Loops
Integrating Loops That Matter into Scenario Discovery for System Dynamics Models
This creates a tension for System Dynamics models. System Dynamics is a white-box modeling approach in which behavior is understood as the result of its model structure. Growth, decline, oscillation, and collapse are not treated as isolated output patterns, but as consequences of stocks, flows, delays, and feedback loops. When scenario discovery is applied to System Dynamics models without considering this structure, part of the potential of the model is lost.
The recently developed Loops That Matter method may help address this gap. Loops That Matter calculates loop scores that indicate how feedback loops contribute to the model behavior over time. This formalizes the quest to explain how model behavior is related to model structure. While feedback loops are commonly used to explain model behavior, such explanation is usually limited to a small number of exemplar runs and is rarely embedded in large uncertainty analyses.
This thesis therefore investigates how Loops That Matter can be integrated into scenario discovery to relate decision relevant model outcomes to the feedback structure of System Dynamics models.
This research develops four approaches. The first approach adds loop scores after a conventional scenario discovery workflow. The second approach uses a single loop score directly in the classification step. The third approach extends this logic by applying time series clustering to multiple loop scores. The fourth approach transforms dominant loop sequences into a network trie. These approaches are tested on two models, a small epidemic model and a more complex energy model. The epidemic model provides a straightforward relation between structure and behavior. The energy model provides more uncertain parameters, more feedback loops, and more diverse behavior.
The results show that Loops That Matter can meaningfully extend scenario discovery when the relation between feedback structure and model behavior is clear. In the epidemic model, loop scores helped explain the differences between mild, moderate, and severe outbreak classes. The dominant loop sequence strips showed how outbreak severity was related to the timing and duration of feedback loop dominance. In addition, clustering the R1 Infection loop score produced classes that could be related back to outbreak behavior and input space. This demonstrates that loop scores can be used both as an ex post interpretation of the model structure, and as a meaningful input to the classification step itself.
The results for the energy model were less successful. Multivariate clustering of two loop scores did not produce classes that were clearly distinct in the model outcomes or well separated in the input space. Similarly, the network trie did not provide a useful classification workflow for scenario discovery. However, the trie did provide an important insight. Namely, that the energy model generated many different dominant loop sequences across the ensemble. Similar behavioral patterns within a key model outcome were also associated with diverse loop dominancy sequences. This suggests that the model exhibits dynamic equifinality, where similar outcomes can arise through different shapes of the feedback loop structure.
The main conclusion is therefore twofold. Loops That Matter can be integrated into scenario discovery, but its usefulness depends on the clarity of the relation between input parameters, and model outcomes. A main contribution lies in the explanatory power of feedback loops after a scenario discovery workflow, as they can help with explaining why classes differ. Their use as a direct basis for classification is more uncertain, especially in larger models. The direct identification of dynamic equifinality is also novel. Previous work has only guessed at its existence, but this research exposes it, and discusses its impact on model based decision support. The thesis contributes a methodological bridge between scenario discovery and structural explanation in System Dynamics, while also showing that equifinality can limit the extent to which model structure can be used to explain decision relevant model behavior. ...
This creates a tension for System Dynamics models. System Dynamics is a white-box modeling approach in which behavior is understood as the result of its model structure. Growth, decline, oscillation, and collapse are not treated as isolated output patterns, but as consequences of stocks, flows, delays, and feedback loops. When scenario discovery is applied to System Dynamics models without considering this structure, part of the potential of the model is lost.
The recently developed Loops That Matter method may help address this gap. Loops That Matter calculates loop scores that indicate how feedback loops contribute to the model behavior over time. This formalizes the quest to explain how model behavior is related to model structure. While feedback loops are commonly used to explain model behavior, such explanation is usually limited to a small number of exemplar runs and is rarely embedded in large uncertainty analyses.
This thesis therefore investigates how Loops That Matter can be integrated into scenario discovery to relate decision relevant model outcomes to the feedback structure of System Dynamics models.
This research develops four approaches. The first approach adds loop scores after a conventional scenario discovery workflow. The second approach uses a single loop score directly in the classification step. The third approach extends this logic by applying time series clustering to multiple loop scores. The fourth approach transforms dominant loop sequences into a network trie. These approaches are tested on two models, a small epidemic model and a more complex energy model. The epidemic model provides a straightforward relation between structure and behavior. The energy model provides more uncertain parameters, more feedback loops, and more diverse behavior.
The results show that Loops That Matter can meaningfully extend scenario discovery when the relation between feedback structure and model behavior is clear. In the epidemic model, loop scores helped explain the differences between mild, moderate, and severe outbreak classes. The dominant loop sequence strips showed how outbreak severity was related to the timing and duration of feedback loop dominance. In addition, clustering the R1 Infection loop score produced classes that could be related back to outbreak behavior and input space. This demonstrates that loop scores can be used both as an ex post interpretation of the model structure, and as a meaningful input to the classification step itself.
The results for the energy model were less successful. Multivariate clustering of two loop scores did not produce classes that were clearly distinct in the model outcomes or well separated in the input space. Similarly, the network trie did not provide a useful classification workflow for scenario discovery. However, the trie did provide an important insight. Namely, that the energy model generated many different dominant loop sequences across the ensemble. Similar behavioral patterns within a key model outcome were also associated with diverse loop dominancy sequences. This suggests that the model exhibits dynamic equifinality, where similar outcomes can arise through different shapes of the feedback loop structure.
The main conclusion is therefore twofold. Loops That Matter can be integrated into scenario discovery, but its usefulness depends on the clarity of the relation between input parameters, and model outcomes. A main contribution lies in the explanatory power of feedback loops after a scenario discovery workflow, as they can help with explaining why classes differ. Their use as a direct basis for classification is more uncertain, especially in larger models. The direct identification of dynamic equifinality is also novel. Previous work has only guessed at its existence, but this research exposes it, and discusses its impact on model based decision support. The thesis contributes a methodological bridge between scenario discovery and structural explanation in System Dynamics, while also showing that equifinality can limit the extent to which model structure can be used to explain decision relevant model behavior.
Data-Driven Transformation to Green Steel
The Role of Data Governance in Sustainability-Related Compliance Reporting for Accelerating the Decarbonization of Steel Manufacturing
The thesis begins with a literature review that highlights key gaps in current research. Eight core data governance criteria were derived from the challenges to structure the findings: data lifecycle management, interoperability, data classification, data security & compliance, data unit responsibility, version control, data storage, and performance monitoring. These criteria were drawn from academic literature and refined based on the steel industry context. While the steel industry has used data to optimize processes and monitor performance for decades, little attention has been paid to how this data is governed. Studies often focus on real-time production data but overlook the governance of supporting documents for sustainability disclosures, regulatory reports, and investment proposals. The role of data governance in aligning technical, regulatory, and operational reporting remains underexplored. Especially with new regulations like the Corporate Sustainability Reporting Directive, the need for structured, transparent data governance has become urgent.
To explore this, the study uses a qualitative case study at TSN’s Transformation Office. This team coordinates strategic reporting, including the Green Book, a report used to secure investment for the transition to green steel. Data was collected through interviews, document analysis, and observations during a five-month internship. The analysis showed that governance practices at TSN are often inconsistent, with unclear document versions, missing responsibilities, and scattered file storage. Most issues are not technical, but organizational.
To address these challenges, the thesis presents practical recommendations for each of the eight criteria. These include using consistent versioning, labeling files with classification levels, assigning responsibility for key data elements, and creating shared templates. The recommendations are designed to work within TSN’s existing systems and routines. They aim to enhance clarity, coordination, and accountability across teams without requiring the implementation of major new technologies. Importantly, the recommendations emphasize that lasting change depends on three key factors: top-down prioritization, practical bottom-up training, and alignment among the eight data governance criteria.
To test the recommendations, a focus group was held at the end of the study. One recommendation per criterion was discussed. Most were confirmed as useful, especially when aligned with team behavior and leadership support. Six out of eight recommendations were seen as transferable to other industries with similar data challenges. However, data unit responsibility and performance monitoring were not confirmed as broadly applicable.
This thesis contributes to the growing conversation about how data governance can support sustainability in heavy industry. It shows that better governance improves data quality, which in turn strengthens strategic reporting and decision-making. While the recommendations are tailored to TSN, many of the insights also apply to other data-intensive organizations. The findings highlight that successful change depends not only on tools and frameworks but on leadership, shared responsibilities, and practical skills.
...
The thesis begins with a literature review that highlights key gaps in current research. Eight core data governance criteria were derived from the challenges to structure the findings: data lifecycle management, interoperability, data classification, data security & compliance, data unit responsibility, version control, data storage, and performance monitoring. These criteria were drawn from academic literature and refined based on the steel industry context. While the steel industry has used data to optimize processes and monitor performance for decades, little attention has been paid to how this data is governed. Studies often focus on real-time production data but overlook the governance of supporting documents for sustainability disclosures, regulatory reports, and investment proposals. The role of data governance in aligning technical, regulatory, and operational reporting remains underexplored. Especially with new regulations like the Corporate Sustainability Reporting Directive, the need for structured, transparent data governance has become urgent.
To explore this, the study uses a qualitative case study at TSN’s Transformation Office. This team coordinates strategic reporting, including the Green Book, a report used to secure investment for the transition to green steel. Data was collected through interviews, document analysis, and observations during a five-month internship. The analysis showed that governance practices at TSN are often inconsistent, with unclear document versions, missing responsibilities, and scattered file storage. Most issues are not technical, but organizational.
To address these challenges, the thesis presents practical recommendations for each of the eight criteria. These include using consistent versioning, labeling files with classification levels, assigning responsibility for key data elements, and creating shared templates. The recommendations are designed to work within TSN’s existing systems and routines. They aim to enhance clarity, coordination, and accountability across teams without requiring the implementation of major new technologies. Importantly, the recommendations emphasize that lasting change depends on three key factors: top-down prioritization, practical bottom-up training, and alignment among the eight data governance criteria.
To test the recommendations, a focus group was held at the end of the study. One recommendation per criterion was discussed. Most were confirmed as useful, especially when aligned with team behavior and leadership support. Six out of eight recommendations were seen as transferable to other industries with similar data challenges. However, data unit responsibility and performance monitoring were not confirmed as broadly applicable.
This thesis contributes to the growing conversation about how data governance can support sustainability in heavy industry. It shows that better governance improves data quality, which in turn strengthens strategic reporting and decision-making. While the recommendations are tailored to TSN, many of the insights also apply to other data-intensive organizations. The findings highlight that successful change depends not only on tools and frameworks but on leadership, shared responsibilities, and practical skills.
Understanding Hassle as a Behavioural Barrier to Residential Load Shifting
A survey-based study on load shifting behaviour among Dutch households with solar panels
This study examines how perceived hassle acts as a behavioural barrier to load shifting among Dutch households with solar panels. It explores how different types of hassle affect load shifting behaviour, with a focus on dishwasher and washing machine use. Also, it studies what shapes the perception of hassle. Hereby, it distinguishes between contextual factors, arising from an individual’s environment, and internal factors, linked to an individual’s characteristics. To guide the analysis, a conceptual model was developed based on the Unified Theory of Acceptance and Use of Technology (UTAUT), using the effort expectancy construct to position hassle perception. The model was extended with internal and contextual factors as antecedents, and habits were added as an internal factor using insights from habit theory.
The study conducted a structured survey combining closed- and open-ended questions among Dutch households with solar panels. The results show that hassle is a measurable and particularly relevant behavioural barrier. Specifically, the hassle factors described as PV monitoring effort, manual planning effort, decision uncertainty, and overloaded machine inconvenience were linked to lower levels of load shifting. Qualitative responses further highlighted the role of family-related hassle, hygiene-related hassle and technical hassle in load shifting behaviour. Furthermore, the findings highlight how family dynamics, personal flexibility, spillover effects of hassle, and habitual routines shape the perception of hassle.
The insights suggest that interventions should focus on improving energy engagement, not only by improving access to user-friendly monitoring tools but also through campaigns to increase familiarity with solar systems. Most importantly, interventions should focus on supporting households in integrating load shifting into daily routines. Future research could build on this study by examining other appliances, such as electric vehicle chargers, exploring how family dynamics shape hassle perception, and using longitudinal methods to better understand how hassle develops over time.
...
This study examines how perceived hassle acts as a behavioural barrier to load shifting among Dutch households with solar panels. It explores how different types of hassle affect load shifting behaviour, with a focus on dishwasher and washing machine use. Also, it studies what shapes the perception of hassle. Hereby, it distinguishes between contextual factors, arising from an individual’s environment, and internal factors, linked to an individual’s characteristics. To guide the analysis, a conceptual model was developed based on the Unified Theory of Acceptance and Use of Technology (UTAUT), using the effort expectancy construct to position hassle perception. The model was extended with internal and contextual factors as antecedents, and habits were added as an internal factor using insights from habit theory.
The study conducted a structured survey combining closed- and open-ended questions among Dutch households with solar panels. The results show that hassle is a measurable and particularly relevant behavioural barrier. Specifically, the hassle factors described as PV monitoring effort, manual planning effort, decision uncertainty, and overloaded machine inconvenience were linked to lower levels of load shifting. Qualitative responses further highlighted the role of family-related hassle, hygiene-related hassle and technical hassle in load shifting behaviour. Furthermore, the findings highlight how family dynamics, personal flexibility, spillover effects of hassle, and habitual routines shape the perception of hassle.
The insights suggest that interventions should focus on improving energy engagement, not only by improving access to user-friendly monitoring tools but also through campaigns to increase familiarity with solar systems. Most importantly, interventions should focus on supporting households in integrating load shifting into daily routines. Future research could build on this study by examining other appliances, such as electric vehicle chargers, exploring how family dynamics shape hassle perception, and using longitudinal methods to better understand how hassle develops over time.
Unraveling the "X" in V2X
A comparative analysis of Vehicle-to-Everything system designs in five key dimensions
issue regarding the drivers and barriers of Vehicle-to-Everything (V2X) technology. While various drivers and barriers have been identified, there is inconsistency in their level of aggregation, even within the same articles.
Furthermore, most of the literature takes a generic view of the V2X system, with only a few articles focusing on specific national contexts. In particular, there is a complete lack of scientific literature that specifically investigates the performance of V2X in the Dutch context. Also, very few studies consider the impact of configuration decisions on the drivers and barriers of the system. This research gap is critical to address and fill, as it provides essential insights into the effects of configuration decisions on the performance and innovation potential of a bidirectional charging system. Understanding these effects will enable a more targeted use of resources and facilitate the practical implementation of V2X systems. This thesis aims to explore different V2X system designs in a socio-technical context, analyse their socio-economic performance and innovation potential, and provide valuable insights for the successful implementation and adoption of V2X technologies in the Netherlands. ...
issue regarding the drivers and barriers of Vehicle-to-Everything (V2X) technology. While various drivers and barriers have been identified, there is inconsistency in their level of aggregation, even within the same articles.
Furthermore, most of the literature takes a generic view of the V2X system, with only a few articles focusing on specific national contexts. In particular, there is a complete lack of scientific literature that specifically investigates the performance of V2X in the Dutch context. Also, very few studies consider the impact of configuration decisions on the drivers and barriers of the system. This research gap is critical to address and fill, as it provides essential insights into the effects of configuration decisions on the performance and innovation potential of a bidirectional charging system. Understanding these effects will enable a more targeted use of resources and facilitate the practical implementation of V2X systems. This thesis aims to explore different V2X system designs in a socio-technical context, analyse their socio-economic performance and innovation potential, and provide valuable insights for the successful implementation and adoption of V2X technologies in the Netherlands.
This thesis presents a blockchain-based artifact design for the European Union that addresses the re- quirements for reliable hydrogen certification, unifying European certification standards in one system while automating intensive reporting and certification processes. Design Science Research (DSR) helps to approach the research structurally. First, the complex hydrogen certification system is outlined, comprising the stakeholders, the institutional frame, and the technical certification processes. Second, the stakeholders contribute to the requirements engineering through semi-structured interviews. Third, a blockchain-IoT architecture framework is developed to translate the requirements of the hydrogen market into system design components. Fourth, the technical artifact is demonstrated in the complex hydrogen certification context. Last, expert interviews are conducted to evaluate the proposed design.
Concluding, blockchain-IoT can serve the requirements for interoperable, automated, and reliable green hydrogen certification while complying with EU regulations on sustainable hydrogen. How- ever, the technical design aspects required to fulfill requirements are premature and costly. Blockchain can serve as a solution, but the technological readiness of specific design aspects such as Zero- Knowledge-Proof (ZKP), Oracles, and Non-fungible tokens (NFT) induce tradeoffs between costs and the effectiveness of the design. Blockchain introduces a paradigm shift from central to decentral sys- tems, affecting technical architecture, governance, and institutions. Governance of the technological artifact is essential to guarantee a successful implementation in the market. Therefore, a decentral system maintenance council must align the physical hydrogen market with the digital blockchain infras- tructure and enforce mutual functionality. The alignment with institutions is considered to address com- pliance with regulatory green hydrogen standards and interoperability with multiple Voluntary Schemes. The current hydrogen market is characterized by institutional fragility affecting the confidence of green hydrogen producers. The artifact can ensure trust in the information, but institutions determine the rules of the certification game, whether virtual or physical. Moreover, the evaluation found that considering only the European market is insufficient. International trade scenarios would increase the impact of the artifact in complex internationally entangled hydrogen value chains. For example, hydrogen produc- ers outside the EU that comply with internationally accredited Voluntary Schemes could sell hydrogen in Europe. Hence, given the information trust issue in the hydrogen market, the artifact provides the first alternative to conventional centralized certification mechanisms benefiting researchers and practi-
ii
tioners in the blockchain application environment.
The thesis contributes socially, culturally, environmentally, and economically to society. The artifact can guide European policymakers to new decentralized methods of addressing the trustful information-sharing issue in the hydrogen certification market (social impact). Conventionally, certi- fication functions from top to bottom enforcing reporting to national authorities. Blockchain can rein- vent public-private cooperation by decentralizing control and tasks (cultural impact). Deploying the artifact can help to facilitate the EU’s plan to increase green hydrogen domestic production and im- port by 10 million tonnes by 2030 (EU Commission, 2023a). The blockchain artifact can guarantee environmental-benign hydrogen supply by ensuring trusted information on the emissions of hydrogen production (environmental impact). Lastly, the artifact can automate reporting processes for hydrogen producers and certification processes for public bodies and thus contribute to the economic capital of the EU. Public bodies and hydrogen buyers have enhanced trust in the information accompanying the hydrogen supply in the European market, and hydrogen producers have reduced market entrance bar- riers induced through administrative tasks (economic impact).
Methodologically, the thesis contributes to the green hydrogen certification economy: To the knowl- edge of this thesis’s author, the potential of blockchain technology as a tool to facilitate hydrogen certi- fication has not been analyzed yet. The thesis provides tangible design concepts for blockchain-based hydrogen certification systems. Scientific research and blockchain practitioners can develop upon this initial study. Secondly, partly outdated blockchain architecture modeling in combination with IoT infras- tructures is addressed. A framework is developed based on existing scientific research to serve the peculiarities of the hydrogen certification market, which can serve as an ontology for future blockchain designs in energy systems. Third, the socio-technical embedment of the technical blockchain design gives insights into adopting such complex, paradigm shift-inducing information systems in society. Last, the evaluation methods of DSR are addressed in the underlying research project. Interesting insights from practitioners with energy and blockchain backgrounds are discussed. These can serve as recom- mendations for future amendments or extensions of the design. Hence, the artifact can contribute to the theory of DSR and practical blockchain implementation research.
The research is limited to the hydrogen market of the EU and distribution via gas pipelines, neglect- ing navel and road transport. The study covers the first design cycle of the DSR approach. Adding successive cycles with the gradual inclusion of more industry experts, various use cases, and new in- stitutional changes can enhance the artifact’s viability for the hydrogen market. Furthermore, different evaluation parameters could be added, such as the tradeoff between technical optimization and the costs of such interventions. Other use cases could entail considerations of the artifact’s interoperability with hydrogen trade platforms, feasibility for different hydrogen trade scenarios (international trade, but also closed systems), and incorporation of additional requirements addressing hydrogen safety, hydro- gen facility construction, and financial incentives. These complexities can test the artifact’s applicability in the socio-technical context. ...
This thesis presents a blockchain-based artifact design for the European Union that addresses the re- quirements for reliable hydrogen certification, unifying European certification standards in one system while automating intensive reporting and certification processes. Design Science Research (DSR) helps to approach the research structurally. First, the complex hydrogen certification system is outlined, comprising the stakeholders, the institutional frame, and the technical certification processes. Second, the stakeholders contribute to the requirements engineering through semi-structured interviews. Third, a blockchain-IoT architecture framework is developed to translate the requirements of the hydrogen market into system design components. Fourth, the technical artifact is demonstrated in the complex hydrogen certification context. Last, expert interviews are conducted to evaluate the proposed design.
Concluding, blockchain-IoT can serve the requirements for interoperable, automated, and reliable green hydrogen certification while complying with EU regulations on sustainable hydrogen. How- ever, the technical design aspects required to fulfill requirements are premature and costly. Blockchain can serve as a solution, but the technological readiness of specific design aspects such as Zero- Knowledge-Proof (ZKP), Oracles, and Non-fungible tokens (NFT) induce tradeoffs between costs and the effectiveness of the design. Blockchain introduces a paradigm shift from central to decentral sys- tems, affecting technical architecture, governance, and institutions. Governance of the technological artifact is essential to guarantee a successful implementation in the market. Therefore, a decentral system maintenance council must align the physical hydrogen market with the digital blockchain infras- tructure and enforce mutual functionality. The alignment with institutions is considered to address com- pliance with regulatory green hydrogen standards and interoperability with multiple Voluntary Schemes. The current hydrogen market is characterized by institutional fragility affecting the confidence of green hydrogen producers. The artifact can ensure trust in the information, but institutions determine the rules of the certification game, whether virtual or physical. Moreover, the evaluation found that considering only the European market is insufficient. International trade scenarios would increase the impact of the artifact in complex internationally entangled hydrogen value chains. For example, hydrogen produc- ers outside the EU that comply with internationally accredited Voluntary Schemes could sell hydrogen in Europe. Hence, given the information trust issue in the hydrogen market, the artifact provides the first alternative to conventional centralized certification mechanisms benefiting researchers and practi-
ii
tioners in the blockchain application environment.
The thesis contributes socially, culturally, environmentally, and economically to society. The artifact can guide European policymakers to new decentralized methods of addressing the trustful information-sharing issue in the hydrogen certification market (social impact). Conventionally, certi- fication functions from top to bottom enforcing reporting to national authorities. Blockchain can rein- vent public-private cooperation by decentralizing control and tasks (cultural impact). Deploying the artifact can help to facilitate the EU’s plan to increase green hydrogen domestic production and im- port by 10 million tonnes by 2030 (EU Commission, 2023a). The blockchain artifact can guarantee environmental-benign hydrogen supply by ensuring trusted information on the emissions of hydrogen production (environmental impact). Lastly, the artifact can automate reporting processes for hydrogen producers and certification processes for public bodies and thus contribute to the economic capital of the EU. Public bodies and hydrogen buyers have enhanced trust in the information accompanying the hydrogen supply in the European market, and hydrogen producers have reduced market entrance bar- riers induced through administrative tasks (economic impact).
Methodologically, the thesis contributes to the green hydrogen certification economy: To the knowl- edge of this thesis’s author, the potential of blockchain technology as a tool to facilitate hydrogen certi- fication has not been analyzed yet. The thesis provides tangible design concepts for blockchain-based hydrogen certification systems. Scientific research and blockchain practitioners can develop upon this initial study. Secondly, partly outdated blockchain architecture modeling in combination with IoT infras- tructures is addressed. A framework is developed based on existing scientific research to serve the peculiarities of the hydrogen certification market, which can serve as an ontology for future blockchain designs in energy systems. Third, the socio-technical embedment of the technical blockchain design gives insights into adopting such complex, paradigm shift-inducing information systems in society. Last, the evaluation methods of DSR are addressed in the underlying research project. Interesting insights from practitioners with energy and blockchain backgrounds are discussed. These can serve as recom- mendations for future amendments or extensions of the design. Hence, the artifact can contribute to the theory of DSR and practical blockchain implementation research.
The research is limited to the hydrogen market of the EU and distribution via gas pipelines, neglect- ing navel and road transport. The study covers the first design cycle of the DSR approach. Adding successive cycles with the gradual inclusion of more industry experts, various use cases, and new in- stitutional changes can enhance the artifact’s viability for the hydrogen market. Furthermore, different evaluation parameters could be added, such as the tradeoff between technical optimization and the costs of such interventions. Other use cases could entail considerations of the artifact’s interoperability with hydrogen trade platforms, feasibility for different hydrogen trade scenarios (international trade, but also closed systems), and incorporation of additional requirements addressing hydrogen safety, hydro- gen facility construction, and financial incentives. These complexities can test the artifact’s applicability in the socio-technical context.
Multi-modelling for the energy transition
Exploring coupling-based issues in multi-resolution energy multi-models
The main conclusion of the conducted research is that the problem described in the main research question can be answered by using a coupling process based on audits, comprised of questions aimed at detecting issues and checking the effectivity of the means to solve the issues. These audits have proven successful in completing two different multi-resolution multi-modelling coupling case studies. The process entails (for a two-model coupling) a separate model audit for each model, leading to a coupling audit using both models and finally to the realisation of the coupling itself. Adherance to the process standardises the way couplings are created to a degree. Because of this, model audits done for one coupling could for example be re-used at a later date for another one. This provides value over old coupling methods, which were often done individually in an ad-hoc manner. ...
The main conclusion of the conducted research is that the problem described in the main research question can be answered by using a coupling process based on audits, comprised of questions aimed at detecting issues and checking the effectivity of the means to solve the issues. These audits have proven successful in completing two different multi-resolution multi-modelling coupling case studies. The process entails (for a two-model coupling) a separate model audit for each model, leading to a coupling audit using both models and finally to the realisation of the coupling itself. Adherance to the process standardises the way couplings are created to a degree. Because of this, model audits done for one coupling could for example be re-used at a later date for another one. This provides value over old coupling methods, which were often done individually in an ad-hoc manner.
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A Case Study into Municipal Heat Transition
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Research to determine and develop the suitable best practices reference checklist to facilitate the adoption of artificial intelligence predictive maintenance technologies
The Robustness of Energy Systems
A novel method to explore the impact of uncertainties on Energy System Design Optimization Models
Edge Computing on the Rise
Towards a Business Model Tool for Analyzing the Potential of Edge Computing for IoT Applications