ICEECIS-NS 2026

ICEECIS-NS 2026 · SHAASTRARTH 2026

Conference Tracks

ICEECIS-NS 2026 invites original, unpublished research contributions across six thematic tracks spanning electrical, electronics, communication, and intelligent systems for nuclear safety.

The conference focuses on the convergence of Electrical Engineering, Electronics, Communication Technologies, Artificial Intelligence, Intelligent Control, Automation, Robotics, Cybersecurity, and Digital Technologies to strengthen nuclear safety, operational reliability, and sustainable energy systems.

Track 1

Nuclear, Radiation & Industrial Safety Systems

Safety-critical technologies, regulatory compliance, and practices for nuclear and allied high-risk industries.

  • Safety-critical Instrumentation & Control (I&C) systems in nuclear facilities
  • Electrical power reliability, emergency power systems, and grid-stability in Nuclear Power Plants (NPPs)
  • Radiation protection, advanced monitoring technologies, and radiological safety
  • Industrial, fire, and chemical safety in nuclear fuel cycle facilities
  • Human-Machine Interfaces (HMI), human factors, and organizational safety culture
  • Severe accident mitigation systems, probabilistic risk assessment, and regulatory compliance
Track 2

Advanced Power Systems & Smart Grids

Resilient, secure, and safe operation of power infrastructure for critical and emergency applications.

  • Reliability and black-start capability of emergency Station Blackout (SBO) power supplies and diesel generators in NPPs
  • Power system protection, transient analysis, and grid optimization
  • Smart grid resilience, microgrids, and secure integration of renewable energy sources
  • High-voltage engineering, insulation coordination, and substation safety
  • Energy storage systems, power quality improvement, and grid-scale reliability assessments
Track 3

Power Electronics, Electric Drives & Industrial Automation

Reliable power conversion, motor control, and automation architectures for industrial and hazardous environments.

  • Design, condition monitoring, and diagnostics of highly reliable electric motor drives for Reactor Coolant Pumps (RCPs)
  • Advanced power electronic converters, inverters, and thermal management systems
  • Industrial drives, intelligent motor control algorithms, and automation technologies
  • Failure analysis, lifetime estimation, and reliability engineering of power semiconductor devices
  • Energy-efficient and fault-tolerant topologies for safety-critical industrial processes
Track 4

Artificial Intelligence, Machine Learning & Signal Processing

Intelligent computational frameworks for fault detection, anomaly monitoring, and decision support in critical systems.

  • AI-driven predictive maintenance and acoustic signal processing for early leak detection in Nuclear Steam Supply Systems (NSSS)
  • Advanced AI/ML algorithms for automated fault diagnosis, anomaly detection, and pattern recognition
  • Image processing and computer vision techniques for non-destructive defect inspection and safety audits
  • Digital twin architectures and real-time simulator applications for complex engineering infrastructure
  • Explainable AI (XAI) and intelligent decision-support systems for control room operations
Track 5

VLSI, Semiconductor Devices, Microelectronics & Embedded Systems

Fault-tolerant, hardware-level reliability, and radiation-hardened electronic designs for harsh operational environments.

  • Radiation-hardened mixed-signal Application-Specific Integrated Circuits (ASICs) and FPGAs for in-core sensor instrumentation
  • Fault-tolerant VLSI design principles, microelectronics, and semiconductor technologies
  • Embedded systems engineering, real-time operating systems (RTOS), and hardware description languages
  • Low-power architecture and smart sensor interfaces for continuous safety monitoring
  • Severe environment reliability testing, qualification standards, and electronic component diagnostics
Track 6

Wireless Communication, IoT & Cyber-Physical Security

Secure, resilient, and ultra-reliable network communication infrastructure for monitoring and remote handling.

  • Secure, Ultra-Reliable Low-Latency Communication (URLLC) frameworks for remote robotic manipulation of radioactive waste
  • Secure wireless networks, optical communication, and 5G/6G deployment in industrial facilities
  • Industrial IoT (IIoT) and smart sensor networks for remote radiological and environmental safety monitoring
  • Cryptography, cybersecurity frameworks, and data integrity for critical cyber-physical systems
  • Resilient networking and real-time communication protocols for safety-critical distributed control networks

Ready to contribute?

Select the track that best matches your research and submit through Microsoft CMT.

Call for Submissions