Under The 38th International Electric Vehicle Symposium & Exposition, EVS38, kommer Lindholmen Science Park och forskare anknutna till våra program som arbetar med framtida mobilitets- och transportlösningar att presenteras. Ämnena sträcker sig från batterielektrisk långväga transport och megawattladdning till den övergripande utvecklingen i Sverige och Norden, samt positiva resultat från drift av över 70 eldrivna tunga lastbilar inom REEL-projektet. Ta del av alla våra bidrag här!
I programmet för EVS38 hittar du följande bidrag från Lindholmen Science Park:
11:00 - 11:20
Toward Framework for a Collaborative Business Model for Urban Freight Microhubs
This study explores collaborative business models in urban freight logistics, focusing on microhubs that can reduce emissions, traffic, and delivery distances in cities. With freight transport responsible for 30% of EU road emissions and urban congestion, microhubs offer a sustainable solution but face challenges due to the need for cooperation among competing logistics actors. Traditional business models are insufficient for this, as they lack structures that support multi-actor collaboration. Building on Vargas et al. (2018), this research proposes a framework with essential factors—Orchestration, Mutual Consideration, Trust, and Adaptation—needed to enhance cooperation in urban microhub ecosystems. Through a literature review the study aims to conceptualise the collaboration element of the business model and test in the REDIG case study involving logistics partners and city representatives. Expected outcomes include a conceptual model for collaborative logistics and practical insights, contributing both academically and practically to sustainable urban delivery solutions.
Anna Fjällström and Tatjana Apanasevic, RISE
14:30-14:50
Operational Insights from Logistics Actors: Running 70 Electric Heavy-Duty Trucks in Sweden
Opportunities and challenges in regional electrified logistics have been demonstrated by an innovative project; REEL, which combines both confidential and open research and innovation. The system demonstration includes more than 70 battery electric heavy-duty trucks, and associated charging infrastructure, operating various types of commercial goods flows. A total of 45 Swedish stakeholders, including 32 logistics operators, are part of the project. This paper presents findings from an in-depth interview study conducted with the logistics operators. The study explores key areas such as operational experiences with electric trucks and charging infrastructure, policy concerns, business model implications, and the potential for scaling up the system.
Andreas Josefsson, CLOSER at Lindholmen Science Park
15:30-15:50
Electrified road freight transport in the Nordics: status, challenges and opportunities
Decarbonising freight transport can significantly reduce emissions while affecting a limited number of vehicles.This article examines the state of freight transport electrification in the Nordics. High vehicle cost, limited charging infrastructure, unclear policies, and difficult interoperability have been identified as major challenges. On the other hand, the region’s innovation capacity, digitalization and environmental awareness, together with a low-carbon electricity mix make it particularly suited for the electrification of freight transport.
Francisco J. Marquez Fernandez, Triple F/VTI
15:30-15:50
Unlocking the Value of Public EV Chargers: A Data-Driven Case Study from Gothenburg, Sweden
Vehicle to grid is emerging as a key technology to increase the hosting of renewable energy sources as well as an enabler for a large-scale EV integration. Although much charging will be conducted at home a large share of people does not have a private parking place and are therefore dependent on public EV chargers. Furthermore, the potential benefits of V2G will increase by increasing the time when EVs can be connected to a charger. This paper will investigate the additional value for a public parking lot operator of V2G based on real data from their existing charging stations. The initial results show that with bidirectional charging the peak demand can be reduced by 24% compared to the uncontrolled case for the simulated charge stations. In the final paper more conclusions will be drawn from the simulations, e.g. potential savings and impact on customers.
David Steen, Chalmers University of Technology, with results from the Lindholmen Science Park e-Mobility project PEPP
12:30-12:42
The impact of Zero Emission Zones on Sweden's Electrification of Heavy-duty Trucks
This study analyzes how the implementation of coordinated zero-emission zones in Sweden's two largest cities could be used to speed up the transition to electric heavy-duty trucks on a national level. Based on GPS waypoint data this study analyzes what share of the current fleet of heavy-duty trucks in Sweden that would be affected by such zones but more importantly how they would be affected. Preliminary results indicate that already with one larger zone in Stockholm, 25% of the vehicle fleet is affected. By combining real vehicle data with different policy instruments, ranging from a ban on conventional vehicles to differentiated tariffs based on emissions, this study will provide policy makers with a novel understanding of the practical outcome from various zero-emission zones variations.
Mikael Lantz, Lund University – with results from CLOSER project REEL.
13:18-13:30
Digitalization of Electrified Logistics Systems Facilitating Scale-Up
Opportunities and challenges in regional electrified logistics have been demonstrated in the REEL project. The need for scale-up of electrified logistics operations with trucks has resulted in a need for many applications to digitalize the management and control systems involved. To accomplish this there is a need to map and digitally characterize all “objects” involved in the management and control, and data that need to be flowing between the sub-systems involved. A method and process for this work has been introduced and data has been identified. Opportunities of using existing or creating new standards to enable interoperable system solutions have been initiated.
Ted Kruse, CLOSER
15:10-15:30
Users’ perspectives of bi-directional charging in public environments
Vehicle users’ adoption of vehicle-to-grid (V2G) is essential for the system's ability to perform V2G grid services. Several questions related to users are investigated in the PEPP project: What charging preferences, needs and routines do EV users have and why? What charging preferences and routines can be created through bi-directional charging? What future expectations do EV users have for bi-directional charging? What are the main predictors of intention to use a vehicle with V2G functionality among EV’ users? To answer these research questions, a multimethod study is performed (interviews and survey). The three main expected results from this study are: a classification of pusers’ rofiles and the potential value of V2G to different user’s profiles; analysis of the perception of barriers, facilitators and economic incentives related to V2G and a predictive model of intention to use V2G based on socioeconomic factors, household profiles and attitudinal aspects related to V2G.
Érika Martins Silva, RISE Research Institutes of Sweden, with results from the Lindholmen Science Park e-Mobility project PEPP
16:30-16:50
The Road to Zero Emissions: Policy Innovation and Electrification in Freight Transport
The European transport sector is facing an unprecedented wave of legislative initiatives from the EU, collectively requiring swift adaptation and strategic action. Failure to navigate these changes risks undermining both competitiveness and the credibility of climate goals. Reaching a fossil-free freight sector by 2050 demands transformative policy innovation to drive electrification and sustainable logistics. Drawing on the Triple F initiative, this paper explores how policy innovation can be used as a lever to support the further build-up of a resilient, electrified transport ecosystem. By championing a policy driven approach, Europe can lead the way to a zero-emission future, setting a global standard in sustainable freight.
Kristina Andersson, Triple F/RISE and Åse Lundh Gravenius, RISE
16:30-16:50
Investigating the Impact of Electrifying Heavy-Duty Trucks on Power Grids Using Agent-based Simulation and Probabilistic Load Modelling
This paper investigates the integration of two detailed simulation methods: agent-based simulation of road transport and probabilistic load simulation with a power grid model. This combination enables a comprehensive analysis of the impact of electrified vehicles on the power grid. Through case studies, which depend on available model input data, the power grid impact of full-electric road freight in the region Skåne is studied. The findings from the joint method development show great potential to accurately capture the energy demand from a potentially full-electric transport sector, which is imperative input to power grid models. The agent-based simulation generates probabilistic power demand time series per charging station. Using these as input in the power grid model, the probabilistic load for real substation transformers and power lines and the likelihood of overloading are calculated.
Mattias Ingelström, Lund University, with results from the Lindholmen Science Park e-Mobility project E-Charge
09:40-10:00
E-Charge: Initial system demonstration of MCS-capable battery electric heavy-duty trucks
E-Charge is a Swedish innovation project with the goal of setting-up and operating an initial system demonstration for battery electric long-haul trucks. Four prototype trucks are demonstrated in real-world logistics flows across southern Sweden. The vehicles have a range to drive for 300 km or 4.5 hours on one charge. Three of the trucks will be compatible with the emerging MCS (megawatt charging system) standard allowing the trucks to fully charge in 45 minutes, about 2-3 times faster than what is currently available on the market in terms of truck and charger capabilities. The project consortium consists of 14 research and industry partners including Scania and Volvo, building two prototype trucks each. MCS charging will take place at public locations with prototype equipment developed by ABB. By June 2025 initial results and experiences from the system demonstration will be presented to the public at EVS38.
Nikita Zaiko, Lindholmen Science Park e-Mobility
09:20-09:40
Electromobility in Sweden: Navigating the Phases of Change and Global Influence
Sweden, a nation of just over 10 million people, has a strong reliance on its automotive industry, and has begun its journey towards electromobility. This paper employs a comprehensive literature review, incorporating gray literature, industry documents, media reports, and authors' industry insights to analyze Sweden’s electromobility transition across four key phases. Key phases include early exploration (1990–2000), national strategy (2001–2010), expansion and infrastructure (2011–2020), and mainstream adoption (2021–2024). Despite high EV adoption, subsidy cuts in 2022 slowed growth, particularly in light-duty vehicles. Swedish industry is progressing toward fossil-free production, yet Europe faces challenges in battery value chain development, regulatory constraints, and global competition. Sweden’s experience underscores the need for long-term, consistent, competency-driven policies for electromobility.
Frances Sprei, Chalmers University of Technology and Hans Pohl, Lindholmen Science Park e-Mobility
11:00 - 12:30
CharIn - Megawatt Charging System (MCS): Standardizing the Backbone of the Future of High-Power E-Mobility
An entire session with focus on standardization as the backbone of future high-power e-mobility, with keynotes, standards update, panel discussion and a fireside chat.
Moderated by Gunnar Ohlin, Lindholmen Science Park e-Mobility
11:00-11:20
Real-life demonstration of Vehicle-to-Grid in Sweden
The automotive industry is shifting toward sustainable transportation, with electric vehicles (EVs) at the forefront. EVs offer a solution to climate change while enabling innovative approaches to energy management, including smart charging. This paper presents the main finding from a real-life demonstration of smart bidirectional charging using a 20kW bidirectional DC-charger. The study explores bidirectional charging in realistic scenarios, demonstrating its potential for peak shaving, grid services, and spot price arbitrage. The initial tests on bidirectional charging show that the system is functioning satisfactory and follows the desired setpoint. In the final paper additional demonstration cases will be presented including the aforementioned cases. Furthermore, key parameters such as, energy losses, ramp up/down response time, will be assessed and presented.
David Steen, Chalmers University of Technology