Goal: Creating adaptable, service-oriented digital twin ecosystems
Aim: To design modular digital twin architectures that enhance visibility, coordination, and adaptability in complex physical–digital environments across healthcare and industry
Projects:
Digital Hospitals (CUH–NHS): Modular twin integrating discrete event simulation, BIM, and IoT data streams
Process Mapping in Histopathology: Flow-variable mapping to identify digitalisation opportunities and critical paths
NGCDI with British Telecom: Fault localization and anomaly detection in national-scale broadband networks
Space-Process Digital Twin (SSRN, Elsevier): Integration of spatial layouts and simulation to model resource–process dynamics in hospitals
Impact:
Enabled cross-domain transfer of digital twin methodologies from manufacturing to healthcare
Advised NHS Trusts, consultants, and suppliers on digital twin deployment and strategy
Published in high-impact journals and top-tier conferences on digital modelling and process simulation
Led development of modular, service-oriented digital twin reference architectures for hospitals and infrastructure
Goal: Democratizing digital transformation through affordable, modular technologies
Aim: To enable scalable, context-aware digital adoption in resource-constrained environments—across manufacturing, logistics, and healthcare
Projects:
Digital Manufacturing on a Shoestring (UK, India, Australia) – low-cost, reconfigurable digital solutions for SMEs
Logistics on a Shoestring – affordable tracking, EV fleet monitoring, warehouse analytics
LoCOST with Boeing – resilient plant monitoring tools for edge-case operations
Digital Twins in Healthcare – CUH Histopathology Twin, Virtual Environmental Sensors
Impact:
70+ SMEs empowered with scalable digital pilots across 4 countries
Founder & Organising Chair of LoDiSA, the first of its kind global workshop series dedicated to low-cost industrial automation
Co-licencee & Architect of modular shoestring platform architectures and digital solutions
Developed robust frameworks for:
• Impact assessment of low-cost deployments
• COTS testing methodology for solution benchmarking
• Modular energy analytics for SME contexts
Influenced policy and IT strategies in both corporate and public sector ecosystems (e.g., Boeing, DPIRD Australia, NHS)
Goal: Architecting resilient and intelligent aerial/edge networks
Aim: To develop scalable offloading strategies, communication protocols, and system architectures that enable autonomous, resource-aware UAV and edge IoT ecosystems under real-world constraints
Projects & Research:
PhD Thesis: “Offloading in UAV Networks” – foundational work on decision-making in aerial IoT under constraints
CEaaS, Phantom Networks, ECoR: Pioneering offloading and routing strategies in resource-constrained environments (IEEE T-SUSC, TPDS)
UAV Virtualization, AerialBlocks: Enabling persistent, heterogeneous UAV-as-a-Service frameworks (IEEE TVT, IoT Magazine)
ROSE, SkopEdge, SPA: Coordination, auscultation, and latency-aware swarm scheduling (IEEE ICC, WCNC, COMSNETS)
Impact:
20+ high-impact publications across IEEE Transactions, Magazines, and Tier-1 conferences
Vice-Chair, IEEE P1954: Contributing to global standards for self-organizing UAV communication
Prototypes & frameworks adopted in smart farming, healthcare monitoring, and defense-aligned UAV applications
Goal: Enabling robust communication and data integrity in constrained networks
Aim: To develop secure, interoperable, and lightweight communication frameworks for IoT systems—especially in healthcare and resource-constrained environments—ensuring trust, privacy, and semantic cohesion
Projects:
SemBox: Semantic Interoperability in a Box for wearables and edge devices
BioBlock, Blockchain at the Edge, CovChain: Blockchain-based frameworks for integrity, privacy, and identity in IoT data flows
HeDI & SDN-enabled Fog Security: Device interoperability and policy enforcement through programmable networks
IoT Blockchain (Indo-UK UGC–UKIERI Project): Secure healthcare data acquisition and release over distributed ledgers
Wearable Health Monitoring Systems: Plug-and-play architectures for secure, on-body sensing and transmission
Impact:
Multiple IEEE T-Journal publications (JBHI, T-PDS, IoT-J, T-Comp) in healthcare and secure IoT
Delivered secure, plug-and-play architectures for wearables and medical data pipelines
Recognized by IEEE ComSoc and awarded INFOCOM Best Paper in E-Health (2022)
Featured Keynotes & Invited Talks:
• “Safety and Privacy in IoT Healthcare” – Indo-UK Workshop, IIT Kharagpur (2018)
• “Phantom Networks” – Indo-UK Workshop, London (2020); also IEEE INFOCOM
• “Synergizing Sensing, Communication & Storage in 5G IIoT Monitoring” – IIIT Sri City (2022)
Impact on standardization: Vice-Chair role in IEEE P1954 and contributions to secure UAV–IoT data pathways
Goal: Improving productivity and safety with IoT in resource-heavy sectors
Aim: To design and deploy intelligent sensing and robotic systems that enhance efficiency, safety, and environmental awareness in sectors such as agriculture, mining, and water management
Projects:
Precision Robotic Planter: Autonomous row-navigation and seed-spacing system for high-efficiency farming
Digital Mine using IoT: Hazard and condition monitoring system for underground coal mines (strata, gas, fire, temperature)
Experimental Sensor Networks for Water Use: IoT-cloud architecture for in-field agro-climatic monitoring and hydrologic modelling
Drone-based Farming & Monitoring: Projects like SEGA (IIoT machine monitoring)
Impact:
Developed field-tested robotic and sensor systems for real-world conditions in agriculture and mining
Nationally funded by leading agencies: Govt. of India, ICAR, ITRA, Media Lab Asia
Winner of Gandhian Young Technology Innovation Award (2018)—presented by the President of India
Recognized in key workshops and invited talks, including:
• “Designing Autonomous UAVs” – Media Lab Asia–ITRA Workshop (2017)
• “Soldier-as-a-System & Surveillance Networks” – Defense Security Workshop, IIT Kharagpur (2019)
Integrated IoT-cloud frameworks used for low-cost, scalable deployment across rural and remote sectors
Goal: Real-time sensing and analytics for industrial insight
Aim: To develop lightweight, adaptive, and deployable analytics tools that extract actionable intelligence from machine and operational data in real-world industrial environments
Projects:
5G Ports Project: Developed constrained discord detection from crane vibration signatures for predictive maintenance
Condition Monitoring with Domain Adaptation: Edge AI for machine health monitoring using vibration data (IEEE IoT-J)
Industry 4.0 on a Shoestring: Scalable analytics models for SME deployments
Analytics on a Shoestring: Modular toolkits for lean, low-cost industrial analytics
Energy & Vibration-Based Monitoring: Low-cost hardware/software stack for machine state tracking and anomaly detection
Impact:
Developed unsupervised, low-cost anomaly detection and edge inference systems
Published in top journals such as Advanced Engineering Informatics and IEEE Internet of Things Journal
Tools deployed in live environments, including UK ports (e.g., Felixstowe) and manufacturing factories
Featured in invited talks and keynotes, including:
• “Lean Analytics” – Keynote at MICA 2023 (NIT Warangal)
• “Modeling Test Procedures for Low-Cost Industrial Solutions” – Techno India University (2022)