Published Online: 30 June 2026.
J. Vis. Artif. Intell., 2026, 1(1), 26105 | Volume 1 Issue 1 (June 2026) | DOI: https://doi.org/10.64189/vai.26105
© The Author(s) 2026
This article is licensed under Creative Commons Attribution NonCommercial 4.0 International (CC-BY-NC 4.0)
Editorial to the Inaugural Issue of Journal of Visual
Artificial Intelligence
Nilanjan Dey
*
Department of Computer Science and Engineering, Techno International New Town, Kolkata, West Bengal, 700156, India
*Email: nilanjan.dey@tint.edu.in (Nilanjan Dey)
The rapid advancement of Artificial Intelligence (AI) has transformed the field of visual computing, enabling
intelligent systems to perceive, interpret, and generate visual information with unprecedented accuracy.
[1]
Recent developments in computer vision, deep learning, multimodal AI, and generative models have
accelerated innovations across diverse application domains, including healthcare, autonomous systems,
robotics, smart manufacturing, digital twins, and human-computer interaction.
[2–4]
By integrating visual
intelligence with edge computing, large language models, and real-time data analytics, next-generation AI
systems can deliver adaptive, efficient, and context-aware solutions for complex real-world challenges.
[5]
Journal of Visual Artificial Intelligence (https://gr-journals.com/journals/vai) (accessed 30 June 2026) is an
open-access, quarterly, peer-reviewed journal that publishes high-quality research articles focused on the latest
advances and innovations at the interplay of computer vision, visual computing and artificial intelligence. The
journal serves as a platform for high-quality research on how intelligent visual systems perceive, process,
interpret, and interact with the world, spanning both fundamental theory and mission-critical applications. The
journal focuses on the core methodologies of AI, as well as on next-generation visual technologies. It has a well-
rounded but integrated range of topics, such as image and video understanding, pattern recognition, multimodal
learning, generative visual models, autonomous system perception, and human-AI visual interaction. It also
features new areas of explainable visual AI, embodied visual intelligence and ethics-motivated system design.
This journal welcomes a variety of article types, including original research papers, comprehensive reviews, and
impactful case studies and surveys offering a dynamic space for scholarly exchange and professional insights.
This first issue (June 2026) brings together a diverse collection of high-quality research articles. Satheeshkumar
R et al. presents a comprehensive analysis of recent advancements in intelligent and cyber-resilient Load
Frequency Control (LFC) for interconnected power systems. By synthesizing 124 studies published between
2015 and 2026, it highlights emerging trends in AI-driven control, cyber-attack resilience, distributed
architectures, and secure communication for next-generation smart grids.
[6]
Baenova et al. present an intelligent
SQL learning support system that integrates an educational ER schema, validator-based error typing, L1-L6
markup, explainable CART diagnostics, and a pilot multidimensional item-response modeling layer. By
combining automated error classification, adaptive feedback, and interpretable machine learning, the proposed
framework provides personalized guidance that significantly improves students' learning outcomes, achieving
a 17.8 percentage-point gain compared with 3.8 percentage points under conventional instruction. The study
highlights the potential of explainable AI-driven intelligent tutoring systems for personalized SQL learning.
[7]
Kunjumon et al. introduce a Hidden Markov Model (HMM)-based Drift Tracking (HDT) framework that
formulates concept drift detection as a probabilistic latent-state inference problem instead of conventional
threshold-based binary decisions.
[8]
Ansari et al. present an offline edge AI framework for real-time exercise
posture correction and repetition tracking using computer vision. The proposed system combines MediaPipe
BlazePose, a Finite State Machine (FSM), and a locally deployed Meta Llama 3 large language model to perform
bio-mechanically validated posture analysis, accurate repetition counting, and personalized workout feedback
while preserving user privacy. By processing all data locally, the framework eliminates cloud dependency,
achieves processing latency below 45 ms, and attains 85% repetition-counting accuracy, demonstrating an
efficient, privacy-preserving solution for intelligent fitness monitoring.
[9]
As a newly launched journal in this transformative era of Artificial Intelligence (AI) and Machine Learning (ML),
we are dedicated to providing a dynamic platform for sharing groundbreaking ideas and developments. We are
committed to upholding the rigorous and efficient peer-review process ensuring that every published work