Battery Material Development Research

E2M laboratory is dedicated to the development of battery materials, focusing on advancing battery technology. Our activities include the following key initiatives:

Battery Technology Research and Development
We will conduct intensive research in various aspects of battery technology, including new battery materials, advanced electrolytes, more efficient battery cell designs, and intelligent battery management systems. We will allocate sufficient resources to these research projects and collaborate with universities, research institutions, and relevant industries to develop new technologies.
Capacity and Efficiency Enhancement
We will focus on increasing the capacity and efficiency of batteries. This involves the development of electrode materials with higher energy capacity, optimization of battery cell structures to improve conductivity, and enhancement of electrolyte performance. We will also study advanced battery production techniques to enhance production efficiency.
Sustainable Battery Research
We will support research on sustainable batteries with a focus on reducing the environmental impact throughout the battery lifecycle. This includes the development of environmentally friendly battery materials, sustainable production processes, and efficient battery recycling methods. We will work with environmental agencies and regulatory bodies to ensure the batteries we develop meet stringent environmental standards.
Collaboration with Industry and Research Partners
We will establish partnerships with relevant industries and research partners to foster battery technology development. This collaboration will involve knowledge exchange, joint funding, and the utilization of shared research facilities. By doing so, we can leverage existing expertise and accelerate the development of battery technologies.
Workforce Training and Development
We will organize training and development programs aimed at producing skilled human resources in the field of energy storage and battery technology. This will help create a competent workforce that meets the growing demands of the battery industry.
Dissemination of Research Findings
We will actively promote the publication of our research findings in scientific journals and participate in conferences and industry forums. This will help disseminate knowledge about the developed battery technologies and raise industry awareness of our innovations.

Advanced Lithium ion Battery

Li-ion batteries are currently used in most portable electronic devices and electric vehicles. Through decades of development, high-capacity and high-power cathode material draw special attention for high performance of advanced Li-ion battery. Our research stream is focused on development many types of cathode (including high-capacity Li-rich, high voltage spinel LMNO, and Ni-rich cathode) and understanding the limitation, then tackling the shortcomings through material modification so that boost the electrochemical properties. Moreover, we also focused on development material engineering to design better cathode materials for fast-charging performance.

Recent Publications:

Layered-Layered-Spinel Structure of the Li1.2Ni0.13Co0.13Mn0.54O2 Cathode Synthesized by Ball-milling Assisted Solid-State Method. Journal of Electroanalytical Chemistry (2022)
J. Karunawan, A. Sumboja, F. Iskandar. The Degradation of Li-rich Li1.2Ni0.13Co0.13Mn0.54O2 During Cycling Studied by Electrochemical Impedance Spectroscopy. AIP Conference Proceeding (2022)
Versatilely tuned vertical silicon nanowire array by cryogenic reactive ion etching as a lithium ion battery anode, Scientific Reports. 2021. 11(1), 19779
Verically Aligned n-type Silicon Nanowire Array as a Free-Standing Anode for Lithium ion Batteries. Nanomaterials. 2021. 11(11). 3137
Advances of the Top-Down Synthesis Approach for High-Performance Silicon Anodes in Li-ion Batteries. Journal of Materials Chemistry A. 2021. 9 (35). pp. 18906-18926

Solid State Battery

All-solid-state battery (ASSB) is one of the innovations in battery technology that is continuously developed and has received many attentions due to its high safety. It replaces the flammable organic-based liquid electrolyte with solid electrolyte, which can be developed from inorganic materials, polymers, or a combination of the two. ASSB has a promising potential to be applied to electric vehicles because of its ability to withstand extreme temperatures. However, ASSB practically still shows a lower performance than conventional batteries, which is caused by the low compatibility of each ASSB component. One of its essential components, i.e. solid electrolyte, is required to have a sufficiently high ionic conductivity. In addition, excellent mechanical properties and structural stability against air/humidity are also important characteristics that solid electrolytes must possess. We give our best efforts to develop an excellent solid electrolyte, both inorganic and polymer-based, in order to support the improvement of ASSB performance. By developing solid electrolytes, we hope to contribute to the field of science, especially in the development of the ASSB.

Recent Publications:

R.M. Putri, C.D Sundari, O. Floweri, T.R. Mayangsari, S.P. Santosa, I.M. Arcana, F. Iskandar, PEO/PVA/LiOH Solid Polymer Electrolyte Prepared via Ultrasound-assisted Solution Cast Method, Journal of Non-Crystalline Solids 556, 120549 (2020)
A. Sohib, J. Karunawan, C.D.D.Sundari, O. Floweri, and F. Iskandar, Rietveld study on the effect of pelletizing and sintering towards the structural evolution of Li1.3Al0.3Ti1.7(PO4)3, IOP Journal of Physics: Conference Series (In Press) – Asian Physics Symposium (APS) 2021
C.D.D. Sundari, A.L. Ivansyah, O. Floweri, I.M. Arcana and F. Iskandar, Insights into the intermolecular interactions and temperature-concentration dependence of transport in ionic liquid-based EMI-TFSI/LiTFSI electrolytes, New Journal of Chemistry (In Press)

Google Sites

Report abuse