Searcharxiv⌕ Search

arXiv · 2611.08722

Residential Vehicle-to-Grid Deployment: A United States-Based Stakeholder Perspective

Abstract

The integration of vehicle-to-grid (V2G), in which electric vehicle (EV) owners can send electricity from their vehicles back to the grid, is an emerging solution to enhance grid resilience. However, V2G deployment in the United States lags behind many other countries. This can be attributed to a broad range of factors, and to investigate them, this study analyzes semi-structured interviews with stakeholders using inductive-deductive qualitative coding. Results from the interviews are coded across financial, technical, social, political, and organizational dimensions in order to understand the three main deployment factors of drivers, benefits, and barriers of V2G. Once coded, the relationships between these factors are used to construct a cognitive map to identify actions that will most effectively drive V2G deployment. The results indicate that grid resilience and decarbonization are seen as the main benefits of V2G. User willingness to participate, a lack of technological readiness and standardization, prohibitive costs, and unsupportive laws and policies are among the most frequently cited barriers. Connections in the cognitive map indicate that the most closely related drivers for mitigating these barriers are user compensation for battery degradation, community outreach, the creation of grid interconnection standards and protocols, and supportive grants and policy frameworks for V2G piloting and adoption.

Explore related subjects

Keep this discovery

Explore connections, maps & timelines

BibTeXRIS

Nelson Nelson, Nora Agah, Kasey M. Faust, Javad Mohammadi. 2026-11-05. Residential Vehicle-to-Grid Deployment: A United States-Based Stakeholder Perspective. https://arxiv.org/abs/2611.08722

Cite the original work for its findings. Save a collection to share your selection of sources.

KEEP EXPLORING

Related papers

Safety Blind Spot in Remote Driving: Considerations for Risk Assessment of Connection Loss Fallback Strategies

As part of the overall goal of driverless road vehicles, remote driving is a major emerging field of research of its own. Current remote driving concepts for public road traffic often establish a fallback strategy of immediate braking to a standstill in the event of a connection loss. This may seem like the most logical option when human control of the vehicle is lost. However, our simulation results from hundreds of scenarios based on naturalistic traffic scenes indicate high collision rates for any immediate substantial deceleration to a standstill in urban settings. We show that such a fallback strategy can result in a SOTIF-relevant hazard, raising the question whether this design decision is acceptable. Therefore, from a safety perspective, we call this problem a safety blind spot, as safety analyses in this regard seem to be very rare. In this article, we first present a simulation on a naturalistic dataset that shows a high probability of collision in the described case. Second, we discuss the severity of the resulting potential rear-end collisions and provide an even more severe example by including a large commercial vehicle in the potential collision.

eess.SY↗

An Enhanced Submodule for Modular Multilevel Converters With DC Fault-Clearing Capability

Modular multilevel converter (MMC) has been successfully applied in various power electronic systems owing to its high efficiency, scalability, and superior output performance. Although the half-bridge submodule (HBSM) is widely used in MMCs for its structural simplicity, it is incapable of handling direct-current (DC) short-circuit faults. The diode-clamp submodule (DCSM) addresses this limitation by providing DC fault ride-through capability. However, because its two identical capacitors are connected in series, the equivalent capacitance is halved. To overcome this drawback, an enhanced SM is proposed in this paper. For the same energy storage capacity, the proposed SM reduces the total required capacitance by 75% compared with the DCSM. In addition, the proposed SM requires one fewer diode than the DCSM, thereby lowering the overall MMC capital cost. The topology and the operating modes of the proposed SM are described in detail, and its functionality is experimentally validated. The results demonstrate that the proposed SM can suppress DC fault currents and restore normal operation without additional external protection devices.

eess.SY↗

Voltage Sensitivity-Based Fair Allocation of Operating Envelopes in Distribution Networks

Operating envelopes (OEs) define the admissible active and reactive power injections of distributed energy resources while respecting distribution network limits. In unbalanced low-voltage feeders, OEs based only on voltage magnitude and thermal limits may overestimate available flexibility because they neglect power quality requirements. This paper develops a three-phase unbalanced AC optimal power flow framework to compute coupled active and reactive power OEs while enforcing limits on the voltage unbalance factor (VUF). It also proposes a fairness mechanism based on voltage sensitivities to allocate available flexibility among multiple photovoltaic (PV) units. The proposed mechanism is compared with lexicographic max--min fairness as a benchmark for equitable resource allocation. Case studies on unbalanced test feeders evaluate how VUF constraints change the feasible operating region of PV units. The results show how VUF constraints affect feasible flexibility and demonstrate that the proposed voltage sensitivity-based mechanism is nearly six times faster than lexicographic max-min fairness.

eess.SY↗