Agents of the Energiewende
UK vs Germany, IV.
The thought of a malfunctioning or destroyed electricity infrastructure is shocking. Electricity systems are critical infrastructures on which much of economic and social life depends. How will these systems work in the future, and what will be the role of autonomous software (AI agents)? How might the answers differ across national systems? We’ve been exploring these questions at a very high level in previous UK v. Germany posts (Part I, Part II, Part III). The aim now is to develop a rigorous framework that supports building the analysis to the next level(s).
Energy systems concentrate public-law duties, private investment, market coordination, cross-border interdependence, and decarbonisation pressures in one operational field. It is a system of constant negotiation across public and private systems. What could be more fascinating as an object for study and discussion?
The German setting is especially interesting, I believe. The Energiewende has led to a slow-motion unfolding of complexity as high-level commitments meet questions of supply security, affordability, and the practical need to translate those commitments into grid expansion, planning, redispatch, connection, and balancing rules.
To get closer and explore the dynamics, let us now suppose that it is a “day in the life in the future.” AI agents are being widely used to solve problems. How do we imagine this would be working itself through in energy systems and settings?
How do public-law duties, critical-infrastructure rules, regulator determinations, operator obligations, market rules, contracts, and judicial review become harnesses for automated systems to determine who may decide what, on which grounds, and subject to what form of challenge?
An agent designed to operate under constitutionally relevant constraints would need to recognise the legal basis of its task, the non-negotiable limits on its role, the priority rules between relevant layers, the points at which uncertainty must be escalated, and the need to preserve reasons for later review.
Operational authority in a critical system. Redispatch brings public system aims and private asset operation into the same legally structured decision space. It can both constrain preferred private operation and recruit flexible private assets as a service to the grid. In March 2026, TransnetBW and Octopus Energy reported redispatch processes using more than 700 household electric vehicles. The question for agentic support, if introduced into such a setting, is what may be recommended, what may be triggered automatically, what requires human confirmation, and which layer governs when security of supply, cost efficiency, and decarbonisation pull in different directions.
Priority-setting in connection and buildout. AgNes and the 2026 Reifegradverfahren for large connection requests show how scarce capacity is allocated through readiness criteria and system-benefit considerations, with direct consequences for buildout timing and contract structure. The question is who defines the optimisation target, and how national efficiency, local affordability, and regional fairness are translated into operative priorities.
Cross-border collision. EU balancing and forward-capacity-allocation rules may meet German statutory duties, TSO constraints, vendor model policies, and firm-specific risk controls in the same workflow. Interconnectors and allocation rules can widen the space for trade and balancing across borders, but public TSO materials also make clear that cross-border capacity remains physically constrained and jointly allocated through market mechanisms. The question is how such collisions are mediated: by hard override rule, negotiated escalation, interface design, or technical default.
Taken together, these three questions prepare the transmission-chain analysis that follows. Full article and source links at the end of the post.
Constitutional Transmission in Germany
The German energy case shows how constitutional commitments reach a dense infrastructural setting of regulators, network operators, private contracts, and software. The claim is not that the Basic Law directly governs every operational decision. It is that constitutional commitments are translated, through increasingly specific legal and institutional forms, into operative permissions, constraints, procedures, and review structures. That sequence is the transmission chain that becomes increasingly relevant to our imagined agents.
Constitutional principles. At the top sit basic constitutional commitments: democratic legitimation, the rule of law, administrative binding to law, and, increasingly, environmental orientation. These do not tell a TSO or DSO how to run redispatch on a Tuesday afternoon. They do, however, define the conditions under which public power may be delegated, constrained, justified, and reviewed.
Statutory concretisation. The Energy Industry Act carries those higher commitments into sectoral public purposes and competence structures. It gives the energy order a legal telos, allocates responsibilities to transmission and distribution operators, and creates the legal basis on which more detailed regulatory ordering can occur.
