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Welcome to the ISGAN Wiki
This wiki serves as a living platform advancing a dialogue, shared understanding and knowledge exchange on smart grid transitions. Building on diverse areas of expertise, the wiki helps the ISGAN community to speak with a unified voice while navigating different viewpoints. There are several ways you can engage with the wiki - read through the existing topics, suggest changes or even bring up your own topics using a common template.
Explore the wiki topics
The ability of the electricity system to manage variability and uncertainty across time scales.
Read more →How digital technologies transform grid operation, data flows, and market participation.
Read more →Structured descriptions of plausible energy futures used to stress-test plans and strategies.
Read more →The capacity of energy systems to absorb disruptions and recover essential functions.
Read more →The technical and operational conditions under which a grid can function reliably.
Read more →The degree to which an energy system can sense, communicate, and adapt in real time.
Read more →Systems thinking and integrated approaches to understanding energy transitions.
Read more →Measurable probabilities and consequences of adverse events in energy system planning.
Read more →Unquantifiable unknowns in long-term energy planning, policy, and technology trajectories.
Read more →How energy system design affects the health, comfort, and quality of life of people.
Read more →The long-term socio-technical processes through which energy systems transform.
Read more →The structures and processes through which energy system decisions are made and coordinated.
Read more →The development and diffusion of new technologies, practices, and business models in energy.
Read more →Policy frameworks that shape how innovation is supported, directed, and scaled.
Read more →How choices are made under uncertainty in complex, multi-actor energy systems.
Read more →How everyday routines and social norms shape energy demand and system change.
Read more →The degree to which technologies, organisations, and institutions are prepared for transitions.
Read more →Time-limited regulatory environments that allow innovation to be tested safely.
Read more →The mechanisms and conditions through which energy system transformation occurs.
Read more →The role of emerging technologies as drivers and enablers of smart grid transitions.
Read more →The routes and sequences through which energy systems move toward new configurations.
Read more →Policy goals and commitments that shape investment and regulatory decisions.
Read more →How successful innovations spread from pilots to system-wide adoption.
Read more →The formal and informal rules, norms, and expectations that structure energy system behaviour.
Read more →Legal and administrative frameworks governing electricity market access and grid operation.
Read more →The structures through which electricity and energy services are traded and priced.
Read more →Market mechanisms that procure and reward demand-side and distributed flexibility.
Read more →Pricing structures for electricity services that allocate costs and shape incentive signals.
Read more →Technical rules governing connection, interoperability, and grid operation standards.
Read more →Shared resources and collective governance models in energy systems.
Read more →Integration of electricity with heat, transport, and gas through cross-sector coordination.
Read more →Energy as a public and commercial service — access, quality, and provision frameworks.
Read more →The organisations and individuals who operate, trade, and manage the electricity system.
Read more →Those with interests in how energy systems develop, from communities to investors.
Read more →The roles people play as users, customers, citizens, and prosumers in energy systems.
Read more →System and network operators who maintain reliability and coordinate grid services.
Read more →Who owns grid infrastructure and how ownership shapes investment and access.
Read more →Collective arrangements through which groups manage shared local energy resources.
Read more →Aggregated distributed resources operated as a single coordinated market participant.
Read more →Energy access and affordability as matters of rights, equity, and social justice.
Read more →Actors accountable for balancing contracted and actual energy volumes in settlement.
Read more →The entities — utilities, regulators, cooperatives — that carry out energy system functions.
Read more →The movement, transformation, and coordination of energy across the supply chain.
Read more →The physical assets — cables, substations, meters — that underpin grid operation.
Read more →The distributed boundary of the grid where generation, storage, and demand interact.
Read more →The physical and logical structure of electricity networks, from transmission to distribution.
Read more →Technologies and roles for storing energy across time to balance supply and demand.
Read more →Frameworks for understanding grid structure across technical, logical, and policy layers.
Read more →The electrical connection point where a distributed resource interfaces with the network.
Read more →Distributed ledger technologies and their applications in energy trading and grid management.
Read more →