Efficient Powertrain Solutions
About the research group
The Efficient Powertrain Solutions (EPS) research group supports the end-to-end process of powertrain development from fuel to energy and emission management while its research focuses on combustion engines.
The research group is committed to developing excellence in methods of testing, simulation and control, building on detail knowledge. The scale and application areas of the used methods make the research group internationally unique.
The research group aims to develop efficient heavy-duty transport and the energy sector with an outcome of zero or even negative emissions impact. The goal is to maximise overall powertrain energy efficiency and develop integrated powertrain control solutions. This is done by providing innovative tools for design optimisation of powertrain configurations and control strategies.
The research group focuses particularly on the following themes:
- Coordinated powertrain development
- Analytical fuel research, new fuels and interaction with aftertreatment systems
- Powertrain testing - experimental research in large-bore internal combustion engine development
- Transformation of multi-fuel powertrains using simulation and modelling
- Combustion control development utilising model-based and rapid prototyping control designs
Latest updates
Research projects
Latest publications
Former Renewable Energy research group's publications
Formerly, the Efficient Powertrain Solutions (EPS) research group was part of the Renewable Energy research group.
| Publication year | Publication | Authors |
|---|---|---|
| 2021 | A novel methodology for the path alignment of visual SLAM in indoor construction inspection | Lu, Tao; Tervola, Sonja; Lü, Xiaoshu; Kibert, Charles J.; Zhang, Qunli; Li, Tong; Yao, Zhitong |
| 2021 | Comparative study of combustion and emissions of diesel engine fuelled with FAME and HVO | Hunicz, Jacek; Krzaczek, Paweł; Gęca, Michał; Rybak, Arkadiusz; Mikulski, Maciej |
| 2021 | Emissions from a medium-duty crdi engine fuelled with diesel-biodiesel blends | Duda, Kamil; Wierzbicki, Sławomir; Mikulski, Maciej; Konieczny, Łukasz; Łazarz, Bogusław; Letuń-Łątka, Magdalena |
| 2021 | Combustion engine applications of waste tyre pyrolytic oil | Mikulski, Maciej; Ambrosewicz-Walacik, Marta; Hunicz, Jacek; Nitkiewicz, Szymon |
| 2021 | Modelling Sustainable Industrial Symbiosis | Haq, Hafiz; Välisuo, Petri; Niemi, Seppo |
| 2021 | An application of seasonal borehole thermal energy system in Finland | Haq, Hafiz; Välisuo, Petri; Mesquita, Lucio; Kumpulainen, Lauri; Niemi, Seppo |
| 2021 | The effect of climate change on water and environmental resources in the Kvarken Archipelago area | Girgibo, Nebiyu |
| 2020 | Simulation Environment for Analysis and Controller Design of Diesel Engines | Nguyen, Hoang Khac; Modabberian, Amin; Zenger, Kai; Storm, Xiaoguo; Hyvönen, Jari |
| 2020 | Methods for Increasing Shares of Self-Consumption in Small PV Solar Energy Applications | Annuk, Andres; Hovi, Mart; Kalder, Janar; Kabanen, Toivo; Ilves, Risto; Märss, Maido; Martinkauppi, Birgitta; Miidla, Peep |
| 2020 | A method to generate a database of source labelled environmental noise samples using open noise data and to quantify wind turbine noise in it | Paulraj, Thileepan; Välisuo, Petri |
Research group leader
Research group members
Zengquan Zheng