Published at : 31 Mar 2026
Volume : IJtech
Vol 17, No 2 (2026)
DOI : https://doi.org/10.14716/ijtech.v17i2.8510
| Yudan Whulanza | Department of Mechanical Engineering, Universitas Indonesia, Kampus Baru UI, Depok 16424, Indonesia |
| Eny Kusrini | 1. Department of Chemical Engineering, Universitas Indonesia, Kampus Baru UI, Depok 16424, Indonesia 2. Green Product and Fine Chemical Engineering Research Group, Laboratory of Chemical Product Engi |
| Muhammad Arif Budiyanto | Department of Mechanical Engineering, Universitas Indonesia, Kampus Baru UI, Depok 16424, Indonesia |
| Arnas | Department of Mechanical Engineering, Universitas Indonesia, Kampus Baru UI, Depok 16424, Indonesia |
| Angi Skhvediani | Peter the Great St. Petersburg Polytechnic University, 195251 St. Petersburg, Russia |
The global innovation landscape is currently witnessing a profound
tension. On the one hand, we see the rise of Technological Sovereignty—a
strategic movement where nations prioritize the development of independent
capabilities in critical sectors such as Artificial Intelligence,
semiconductors, and, most crucially, sustainable energy systems. On the other
hand, the most pressing challenges of our century—the climate crisis and the
transition to Net Zero—demand a level of cooperation that transcends national
borders.
The Paradox of Energy Independence
This urgency has been starkly highlighted by ongoing geopolitical
fractures in the Middle East and surrounding regions, resulting in direct
disruptions to key energy transit chokepoints. The choking of global oil and
gas supplies due to these volatile events serves as a grim reminder of how
import-dependent, developing, and emerging economies are exposed to distant
geopolitical shocks.
Consequently, the pursuit of localized renewable energy is no longer
just an environmental goal; it is a necessity for national security and
economic resilience. However, this valid pursuit of technological sovereignty
carries the risk of "innovation silos." If breakthroughs in renewable
storage or green methodologies remain shielded behind proprietary walls or
strict national boundaries, the global pace of decarbonization slows down. The
mathematical reality of innovation suggests that collaborative networks yield
the following exponential results:
$$\text{Global Energy Transition} \approx \int_{0}^{t} \left(
\sum_{i=1}^{n} \text{Regional Innovation}_i \times \text{Open Data Share}
\right) dt$$
For an archipelagic nation like Indonesia, technological sovereignty in
energy is not just a policy goal but a necessity for national resilience, as
highlighted by the Just Energy Transition Partnership (JETP)’s localized
solutions required for microgrids and geothermal optimization. In our
continuous effort to showcase this spirit of balancing local execution with
global frameworks, we reflect on highly impactful studies that tackle these
exact paradigms that were previously featured in our journal. For instance,
Brazovskaia and Gutman (2021) emphasized the necessity of classifying regions
according to climatic characteristics to optimize the localized use of
renewable sources, proving that one-size-fits-all energy models are
insufficient. Building directly upon this need to understand localized
potential, Saroji et al. (2022) demonstrated a comprehensive framework to
optimize power generation development, thereby efficiently increasing the
utilization of these renewable sources. Finally, Zaytsev et al. (2021) provided
a vital assessment of the innovative potential of alternative energy
specifically within the context of transitioning to a circular economy by
looking at the macro-level sustainability of these systems.
Together, these studies represent the exact intersection of localized
expertise and global relevance that we champion. We encourage our future
contributors to consider how their work contributes to these global “commons”
of energy knowledge.
Open Science as a Strategic Bridge
At IJTech, we posit that Open Science (OS) is the essential framework
required to resolve this tension. Open Science is not merely about "free
access" to PDFs; it is a fundamental shift in how we approach the energy
transition. It encompasses:
·
Transparency in Energy Modeling: By encouraging
authors to share raw datasets and simulation parameters (e.g., for solar
irradiance or grid stability), we ensure that local energy sovereignty is based
on verifiable, peer-reviewed truth.
·
The Indonesian Perspective: Within Southeast Asia,
and specifically through the research ecosystem at Universitas Indonesia, we
are seeing a surge in "frugal innovation"—engineering solutions that
are high-impact yet cost-effective. Open Science ensures these regional
breakthroughs in renewable energy are visible to the Global North, creating a
truly reciprocal international dialogue.
·
Collaborative Sovereignty: We advocate for a model
in which nations are self-reliant in their energy infrastructure but
collaborative in their scientific discovery.
IJTech maintains a rigorous gatekeeping role as an indexed journal in
Scopus and Web of Science, upholding stringent peer-review standards to ensure
that only the most robust research is published. However, rigor and openness
are not mutually exclusive. In fact, Open Science fundamentally enhances
scientific rigor.
Open energy models are immediately subject to wider global scrutiny,
allowing independent researchers to audit the code, stress-test the
assumptions, and replicate the findings under different regional constraints.
Furthermore, when methodologies are fully transparent and raw datasets are
accessible, they invite continuous global refinement rather than static
acceptance. This open validation loop actively discourages
"black-box" simulations and prevents research failures from being
duplicated. For IJTech, fostering this level of transparency does not
dilute our editorial standards; rather, it elevates them, ensuring that the
technology we publish is not only theoretically sound but also globally
verifiable and practically deployable.