Speakers

Profile :

An Engineering Leader with close to three decades of Aerospace Materials, Manufacturing, R&D, Additive Manufacturing and Suppliers development experience. At Boeing as an Associate Technical Fellow and a Global Technology Leader, he is involved in innovative aerospace manufacturing and materials development. Previously worked as Tech Lead – Materials at Rolls-Royce India Pvt. Ltd, Senior Lead Engineer - Airframe at Airbus India, Staff Engineer – Materials at Bloom Energy (India) Pvt. Ltd, Scientist and Assistant Director in CEMILAC, DRDO and Engineer at Indian Seamless Steels & Alloys Ltd, Pune.

He has done B.E (Metallurgy) from NITK, Surathkal with First Rank, M.S (Materials) from IISc, Banglaore with First Rank, PhD in Management from ZIBM, Mumbai and PhD in Engineering from Academy of Scientific & Innovative Research & NAL, Bangalore. He holds four patents, three patent applications filed and Seventy Trade Secrets.

He has received many awards including,

• The Society of Asian Scientists and Engineers (SASE) 2024 Achievement Award – Career (22+ years)

• Boeing Research & Technology Performance & Innovation Award 2022, 2023

• Mentor of the Year 2022-23 by Aditya Birla Group in association with Pro | MFG Media

• National Science Day Award – 2004 from Scientific Advisor to Govt. of India.

Profile :

Sathisha CH is a Senior Scientist at GE Aerospace Research with over 17 years of expertise in materials science and surface engineering. He specializes in addressing durability and wear challenges in aerospace systems, driving innovation in material selection and advanced surface technologies. He has made significant contributions to materials science, enabling advancements in metal additive manufacturing, thermal spray coatings, and advanced characterization techniques. Sathisha holds 17 US/EU patents and has authored several publications in reputed journals. With a proven track record in R&D leadership, he is passionate about advancing aerospace materials to enhance performance and efficiency.

Abstract :

Title -

Profile :

Meet Damodaran, a seasoned leader in the aerospace and defence sector currently serving as the CEO of ChipEdge, Celton Semiconductors, a VLSI and embedded product company. With over three decades of experience, Damodaran is also the Chief Consultant at FUTURIUM, a digital transformation and business consulting firm. He began his career in 1990 at Ashok Leyland, a leading heavy automobile manufacturer, before transitioning to EASI, a Detroit-based engineering company, where he oversaw offshore engineering services for clients in the United States and Europe. In 2004, Damodaran joined SAFRAN Engineering Services India, managing a team of 700 experts and playing key roles in aerospace product development and manufacturing. His contributions to transnational projects such as the B787, A380, and A350 for Boeing and Airbus were significant. His roles at SAFRAN evolved from Director of Systems Design to Senior Vice President, where he led Business Development, Strategy, Innovation, and Delivery of Engineering Business. He also served on the board of Safran Engineering Services as a Managing Director, supporting the establishment of support for the CFM Training facility, Wire Harness Manufacturing plant, and Engine Component manufacturing plant. In 2021, Damodaran assumed an advisory leadership role as Vice President of the Aerospace and Defence Business unit at AVTEC, focusing on developing offshore talents and services for global automotive, aerospace, railway majors, and Indian defence industries. Damodaran holds a Diploma in Mechanical Engineering from CIT Sandwich Polytechnic, complemented by Bachelor's and Master's degrees in Systems & Information from BITS Pilani. He has pursued management programs at SAFRAN University in Paris and the USA, IIM Ahmedabad, and IIM Bangalore. He is currently pursuing a PhD in cognitive artificial intelligence at Christ University, Bangalore. Professionally well-connected, Damodaran has affiliations with industry bodies such as the Indo-French Chamber of Commerce, where he served as VP of the Aero Sector. He is actively engaged with SAE INTERNATIONAL and SAE INDIA Aerospace Board, having chaired the SAE INDIA Bangalore Section and presently holding a position on the Management Board of SAEINDIA. Damodaran is also preparing to be an independent director focusing on sustainability, risk management, and ESG governance and practices

Abstract :

Title:

Multi-Material Additive Manufacturing of Next-Generation Circuit Boards and Power Electronic Components

As electronic devices grow more complex and customized, traditional circuit board and power module manufacturing face increasing limitations in integration, thermal performance, and design flexibility. This talk explores how multi-material, multi-layer additive manufacturing (3D printing) is revolutionizing the way we conceive, prototype, and produce advanced electronic assemblies—from circuit boards with integrated components to high-performance power electronics.

Current multi-material 3D printing platforms can co-fabricate conductive traces, insulating layers, and structural elements in a single process, enabling fully integrated electronic assemblies that reduce assembly steps and unlock new geometries unattainable with conventional PCBs. Flexible and stretchable circuits, printed using functional inks and elastomers, open new possibilities for wearable devices and flexible sensing applications. For power electronics, additive methods allow integrated thermal management features such as conformal cooling channels, as well as custom magnetics and embedded passive components, all while reducing size, weight, and manufacturing complexity.

Despite these advances, significant challenges remain—including material property limitations, print resolution, and scalability—for widespread adoption in mainstream electronics. This talk will present real-world case studies, discuss critical barriers, and highlight promising research directions for multi-material additive manufacturing in electronic product development. By bridging the gap between material science, process engineering, and electronics design, multi-material 3D printing is poised to become a key enabler of next-generation electronic devices—provided industry and academia collaborate to overcome today’s technical hurdles and accelerate the adoption of these transformative technologies.

Profile :

Dr. Manjunath heads the Metal Forming & Joining division, Manufacturing group in GTRE comprising of strong work force including scientists, technical officers and technical staff. He has over 25 years of experience in manufacturing of intricate aero engine components and assemblies of “Jet engine” made up of exotic materials such as Titanium, Nickel and cobalt based alloys.

He has contributed immensely to the indigenous development for manufacturing of Small Turbo Fan Engine; the power plant for “Nirbhay” Cruise Missile application. Has been instrumental in signing the Transfer of Technology (TOT) agreement with three Indian Industry for manufacturing Small Turbo Fan Engine. Successfully productionized the engine at Brahmos Aerospace Trivandrum Limited. Domain expert for handholding Industry partner for 50kN Aero Engine Manufacturing for Indian Unmanned Combat Aerial vehicle(IUCAV).

Contributed in manufacturing of the additive manufactured Turbine wheel for the Turbocharger for 1500HP diesel engine of Main Battle Tank (MBT) “Arjun”

Areas of Interest:

Research in Advanced Manufacturing Technologies, Industrialization & Gas Turbine Engine Development for Aero, Marine and UAV applications.

Trainings: Leadership skill development at ASCI, AS9100D auditor, Essential management skill training at ITM, Google Project management.

Recognition:

a) Best paper at the 39th Indian Engineering congress held at Kolkata on 20-22 Dec 24

b) Association of Welding Products Manufacturers (AWPM) award for Best Technical Paper at National Welding Meet 2023c) d) e) f) g) h) i) DRDO machine shop safety award: 2019,2020 and 2021 D&H Secheron award 2020 for best presented Technical paper at International congress DRDO Lab scientist of the year award 2019 National Technology award, DRDO 2015 KCP award for Best Technical Paper in Fabrication, IIW Lab Golden Jubilee award for Sheet Metal & Welding Technology,2009 Commendation from Director, LPSC, ISRO Thiruvanthapuram, Kerala for Fabrication of Gas bottles for PSLV C10

j) Commendation from Director Aeronautical Development Establishment for fabricating engine mounting frame for Rustom

k) Commendation from Director, Electronics & Radar Development Establishment for fabricating the Horn antenna

l) Commendation from Director, Instruments Research & Development Establishment formanufacturing submarine periscope shell

m) Commendation from Director, Defence Bio Engg and Electro medical laboratory for precision welding of oxygen sensor assembly for On board oxygen generator.

n) Domain Expert for review of Aeronautics Research & Development Board sponsored projects in manufacturing

o) Invited lectures at several Engineering colleges

(DIAT,MSRIT,BMSCE,BMSIT,Presidency,MVJ,KCG,AMET,VTU,MIT,NITT,IITM,

Nitte,RCET, IIST)p) q) r) s) t) u) v) w) x) Published several papers in National & International Conferences (43) and Journals (14)

Life member of Aeronautical Society of India Senior member in Indian National Academy of Engineers (INAE)

Life Member Indian Science Congress Association Life Member of Power Beam Society, BARC Mumbai

Life Member of Indian Welding Society, Trichy Member of Indian Institute of Welding, Kolkata Past President Engineers Without Borders Bengaluru professional Chapter Invited talks on thinking at Da Vinci Institute, Bangalore,

Abstract :

Additive manufactured parts for Gas Turbine Engines - New research areas and route to qualification & certification.

Additive Manufacturing (AM) is a disruptive technology which has great potential in the aerospace industry for quick fabrication of parts. It provides opportunities for design flexibility, cost savings, weight and part count reduction. However, for part certification there is a need to establish material and process controls. this paper addresses the following topics pertinent to Additive Manufacturing process qualification: Process Development Supply Chain Qualification Material Property Development Part Design and Quality Controls Supplemented with additional focus on issues unique to AM. In addition, it also discusses the various advanced research areas in AM such as Integration of sensors, machine learning, and process analytics–integrate models of composition, processing, microstructures, and mechanical behavior with AI and decision making. Keywords: Additive Manufacturing, Qualification, certification, Gas turbine engine

Profile :

Dr. T. Ram Prabhu, Scientist, serves as Airworthiness Certification Lead in advanced aerospace materials and additive manufacturing at CEMILAC, with over 15 years of research and innovation experience. An alumnus of IIT Madras, IISc Bangalore, and NIT Trichy, he also holds diplomas in Finance and Applied Statistics. He has contributed extensively to the field with 76 SCI-indexed papers, 27 conference publications, 9 JSS standards, and 10 book chapters, with a citation and h-index of 2300 and 25 respectively. Recognized with more than 20 awards, including the IEI Young Engineer Award and NIT Trichy Young Alumni Achiever Award, his work has earned international recognition in the Stanford–Elsevier Top 2% Scientists list. He remains committed to advancing aerospace certification, mentoring researchers, and fostering collaborations.

Abstract:

Laser Powder Bed Fusion (LPBF) metal 3D printing is emerging as a transformative technology for the Indian military aircraft sector, enabling lightweight, high-strength, and design-optimized components for aircraft, helicopters, and aero-engines. Key achievements include the development of certified flight-worthy parts, repair solutions for legacy platforms, and accelerated prototyping cycles. To harness its full potential, strategic integration into national programs is essential, supported by a framework uniting DRDO, academia, R&D institutions, and industry. Collaborative ecosystems can ensure material qualification, process standardization, and certification pathways, thereby promoting self-reliance and strengthening India’s aerospace capabilities through advanced additive manufacturing. The talk highlights recent achievements and outlines certification protocols for LPBF components in the Indian military aircraft sector.

Profile :

Dr. Satyam Suwas is a Professor of Materials Engineering, and currently the Dean of Mechanical Sciences at Indian Institute of Science, Bangalore, India. He obtained his Ph.D. in Materials and Metallurgical Engineering from IIT Kanpur, and worked at Defence Metallurgical Research Laboratory, Hyderabad; University of Lorraine, France and RWTH Aachen, Germany before joining Indian Institute of Science. His specialization includes materials processing, crystallographic texture and mechanical behaviour of materials. He has co-authored/co-edited 5 books, and published 400+ papers in reputed international and national journals. He is the recipient of many awards, the most notable ones being the Friedrich Wilhelm Bessel Research Award from Humboldt foundation, Germany, and GD Birla Gold Medal from Indian Institute of Metals. He serves on the editorial board of many reputed international journals in the field of Materials Science and Engineering. He is a fellow of Electron Microscope Society of India (EMSI), Indian National Science Academy (INSA), Indian National Academy of Engineering (INAE) as well as National Academy of Sciences, India (NASI).

Profile :

Dr. Dheepa Srinivasan, is currently Dean, Research and Innovation, at MS Ramaiah University of Applied Sciences. She has over 25 years of experience in working in advanced Materials and Manufacturing for Gas Turbines. She is a pioneer in metal Additive Manufacturing and has enabled qualification of several gas turbine components from India, in an accelerated manner. Dr.Dheepa has a PhD in Metallurgical Engineering from the India Institute of Science.

Abstract -

Topic : New Alloy Development for Hybrid Additive Manufacturing for Turbine Components

Materials and Manufacturing technologies have enabled Gas Turbine engine advancements and played a critical role in various aspects of the engine performance metrics of, thrust, efficiency, firing temperature and weight, since the last 7-8 decades. While there have been tremendous efforts on research and development in utilizing metal Additive Manufacturing as a versatile technology, the number of qualified metallic parts that are running in the engine have not been commensurate with the applied research and development efforts and the benefits that the AM technology offers. Future engine capabilities require lightweight structures and higher temperature capability with greater durability. The talk will address the evolution of some new Aluminum, Nickel and Cobalt based superalloys via metal additive manufacturing, especially as a hybrid solution and share examples of the time and effort involved in the development of assessing their mechanical capability via small scale testing, with detailed microstructural characterization, for accelerated alloy qualifications. 

Profile :

Dr Sankha dip Das received B.Sc(Hons) degree in Physics, B. Tech & M.Tech degrees in Radiophysics and Electronics from University of Calcutta, India and M. Phil & PhD degree in Electronics and Electrical Engineering from University of Sheffield, UK.

He joined Ministry of Electronics and Information Technology (MeitY), Govt. of India in 2015 as a Scientist, which is his current role. He has carried outtechno-economic work at the ministry and contributed to several Govt. of India policy faming in the areas of R&D, e- waste, industrial policy and additive manufacturing. His current interest includes R&D for manufacturing by Indian MSME sector in the areas of Photonic Integrated Circuits (PIC), High-frequency PCB Substrates, Rechargeable Battery Cells (Li-ion, Li-poly & Na-ion) and Additive Manufacturing; supporting Govt. of India’s “Atmanirbhar Bharat Abhiyan” under Digital India Program.

He is part of the core team for review & research, drafting and release of ‘National Strategy for Additive Manufacturing (NSAM)’ by MeitY. His current responsibility includes implementation of NSAM through self-sustainable centers in PPP mode. He is currently working on next version of the strategy and implementation.

Profile :

Dr Shariff is a renowned scientist with more than 26 years of experience in the field of laser-based manufacturing involving machining, joining, surface engineering and additive manufacturing. He obtained his PhD from Jadavpur University, India for his work in the field of Laser Surface Engineering. As on date, he had published 130+ technical papers in peer-reviewed international journals (70+), Patents (10+), Conference Proceedings, Articles and a Book-chapter and delivered numerous invited and contributory lectures in the field. He developed more than dozen laser-based processing technologies for Defence, Aerospace, Automotive, Medical, Energy, Nuclear and Engineering sectors with funded and collaborative projects with DST, DHI, BHEL, BRNS, DRDO, TSL, NTPC, GTRE, TVS, GE, Hoganas AB, Fraunhofer-Institutions, etc., and worked for various international collaborative programs with USA, Germany, Israel, and Sweden. He supervised PhDs / PDFs (5+), B-Tech/M-Tech (35+) thesis works and received several awards for his contributions in the field. He provided consultancy in setting up requisite laser processing systems to various organisations/companies such as CSIR-NML, BHEL, VSSC, IPM, SSCT and Private Enterprises. Apart from laser-based applications development, his expertise includes Laser Process Modelling, Materials characterization, Tribology, Mechanical Behaviour of Materials and Failure Analysis.

Topic : " Design and development of 2D- and 3D-Laser-clad coatings for applications in thermal and Nuclear power plants"

Abstract :

In a nuclear or thermal power plant industry, life cycles of components such as boiler parts, feeder circuit parts, heat-exchanger parts, vessels etc depend on coatings engineered to the parts to sustain the prevailing stringent atmospheric conditions. Failure of parts due to tribological properties such tribo-corrosion, high-temperature wear, galling   and combinations of them often lead to increased downtime maintenance schedules or sudden unwanted breakdowns leading to considerable economic losses. Wear behaviour in such components is complex depending on the conditions involved, ranging from simple wear to mix of erosion-corrosion, galling at high temperatures. Such tribological systems working in high temperature aggressive environment of a thermal or nuclear power plant requires suitable surface modification solutions that can enhance life of the components. A common approach is to engineer the contacting surface with a suitable single-layer coating, but many-a-times it requires multi-layered 2D or 3D buildup based on design considerations of the part. The quality and economics of the coating/buildup principally dependant on depositing materials, their strategy and methodology itself.

The emergence of 2D and 3D buildup by laser assisted cladding or DED or hybrid systems integrated to variety of robotic/CNC workstations, CAD/CAM tools, design software, sensor-based feed-back control systems, process-monitoring tools etc entails adoption of technology to real industrial solutions, especially, when it comes to utilisation of costly feeding materials and imparting on very localised regions. In the present talk, systematic and comprehensive methodologies adopted to implement these 2D and 3D buildup strategies on components such as feeder nozzle boiler part, heat-exchanger vessel parts will be deliberated in detail. Indeed, the solutions provided and compared with currently used technologies showed their advantages, specifically, in terms of vast reduction in re-work, time-management, rejection-rates and huge cost savings in terms of feedstock utilisation, although at the expense of providing suitable post-processing treatments and strategies.

Profile :

Prof. Ramesh Singh is G. K. Devarajulu Chair Professor in the Department of Mechanical Engineering at IIT Bombay. His research interests are laser additive manufacturing, ultra-highspeed micromachining, and finite element simulation of manufacturing processes. He is actively involved in the design and development of special-purpose machines for Indian industry and strategic sector. He received his PhD from Georgia Institute of Technology in 2007. He has published more than 220 international journals and peer-reviewed conference publications. He has been awarded 4 Indian and 2 US patents. He has guided 19 PhDs and over 80 Masters students. He received the prestigious Swarnajayanti Fellowship in Engineering Sciences in 2015 and the SME NAMRI Outstanding Paper Award at the at Virginia Tech in 2016. He is the Associate Editor of the ASME Journal of Micro-Nano Science and Engineering and the Transactions of the IISE. He serves on the Editorial Board of Nature Scientific Reports, JMST Advances, and the International Journal of Precision Technology.

Abstract :

Title: Development of Autonomous Robotic Restoration Process based on Laser Directed Energy Deposition

Prof. Singh works on developing science enabled technologies to create flexible fiber laser manufacturing platforms. This talk will focus on the process development of free-form laser directed energy deposition (LDED) for restoration and reconditioning of dies and aerospace structures. LDED is a fairly complex process that involves power attenuation due to laser-particle interaction, melt-pool formation, powder catchment in the melt pool, and the residual stress evolution due to differential thermal contraction and metallurgical transformations. Understanding the residual stresses and defects in the depositions are very important for sustainable repair. Therefore, an integrated physics-based modeling approach incorporating all the key phenomena in LDED will be discussed for single and multi-track depositions. In addition, the development of a complete autonomous robotic restoration system, which includes 3-D defect scanning module and a multi-axis deposition platform will be presented.

Webpage: https://www.me.iitb.ac.in/~ramesh/

Profile :

Anand Pujari is an Senior Manager, Account Management with Autodesk and caries education initiatives in India. His focus is on introducing students at all levels to the love of Design and Make – and the power of Design and Make technology – so that they can develop into the next generation of designers, engineers and architects. This sees Anand working to provide the future workforce with access to the cloud-based platform like Autodesk Fusion and learning content from Autodesk both in- and out-side of the classroom, as well as working with partners in the education ecosystem to help prepare an industry-ready workforce with the 21st century skills they need to take advantage of opportunities in a new global environment. Anand works towards driving the adoption of Autodesk solutions within academic curriculums. He has been with Autodesk since 2002, worked within Developer Community & Product certification, Customer Relationship & Support, and now to drive Education Initiatives. Anand has almost 27 years of experience as Senior Account Manager, Program Manager, Senior Technical Specialist, Design Engineer, and Training Services having worked with companies like Hindustan Aeronautical Limited (HAL), Leonardo Engineering, CADD Centre. Awards and recognition: Anand has received multiple awards in his professional journey • Best Performer award for consecutive three-year 2023 2024, and 2025, • Outstanding Individual Achievement Award 2017 • Cloud Award - For outstanding peer-recognized contribution, Cloud Platform Group, 2015. • 15 Years of Service Recognition Award, 2017 • Top Performer Award, 2005 He is an engineer from the University of Gulbarga, with a degree in Mechanical Engineering

Profile :

Vignesh Nagarajan is an accomplished professional with more than eight years of dedicated

experience in nanotechnology, advanced manufacturing, and materials innovation. He holds a

Master’s degree in Nanotechnology from JSS Academy of Higher Education & Research,

where his academic foundation was strengthened through research and leadership in applied

sciences. Over the years, he has honed his expertise in industrial synthesis, additive

manufacturing processes, the ability to customise and commercialise new alloys, and the

development of indigenous metal powder manufacturing and markets.

Vignesh has also gained international recognition through certifications in Business Analytics

from Johns Hopkins University (USA), Design for Additive Manufacturing and Laser

Powder Bed Fusion from Arizona State University (USA), and Quality Improvement &

Management from Board Infinity (India). Recognised for his vision, leadership, and industry

contributions, Vignesh has consistently driven innovation, streamlined complex

manufacturing processes, and enabled organisations to deliver world-class solutions. He

continues to serve as a brand-oriented leader committed to shaping the future of advanced

materials and manufacturing.

Profile :

Dr Harish Murthy is the present Secretary General of the Karnataka Orthopaedic Association and also Head of Department of Department of Orthopaedics at Raichur Institute of Medical sciences Govt Medical College Raichur. He is specially interested in completing trauma and joint replacement surgery. He is interested in adapting 3D Technology in Orthopaedics both for teaching under graduate  and post graduate students and using 3D Printed implants in complex joint replacement surgeries. He not only uses 3D Printing technology himself but also is keen in propagating this technology using his office as secretary General of Karnataka Orthopaedic Association.

Abstract :

Title: 3D Printing Technology in complex primary and Rivision Total Hip Replacement.

Total hip replacement is considered as surgery of decade in managing end stage hip arthritis.  Increasing number of primary​hip replacement has lead to increase in frequency of rivision hip replacement which are often more challenging due to severe acetabular defects. In our country we get many neglected trauma and post septic sequelae with severe acetabular defects. In these cases of Paprosky 3A and 3B defects the goals of acetabular reconstruction are to restore the centre of rotation, restoration of integrity of acetabulum and continuity of columns, containment of defects and stable fixation of prosthesis. In doing so precise implant design and augments are needed and standard acetabular augments and antiprotrusio cages fail to provide necessary stability leading to re-revision rates as high as 36% with in 10 years. In these cases 3D Printed acetabular augments and cages help in managing severe acetabular bone loss during revision and complex primary THR.

Profile :

Dr. Aratatran Patra 

MPO, MBA,MARD, MA(Socio),PGDBA

Prosthetist & Orthotist, Former Nodal Officer CRC Tripura & CRC Nagaland, Former I/c Out Reach Services, 

National Institute for Locomotor Disabilities(Divyangjan)

Department of Empowerment of Persons with Disabilities, Ministry of S J & E, Govt. of India

B T Road, Bon-Hooghly, Kolkata-700090

​Secretary-ISPO-India, Vice-President-OPAI, & President-SVNIRTARAA​

Member ISPO Education Committee, Former Member ISPO Protocol Committee, Editor-JOPAI, Member-BIS MHD09, Member-RCI ZCC

Member-Vijyana Bharati(Vibha India), Member-Indian Academy of Cerebral Palsy

Organizing Secretary of 3 National Conferences, many CREs, Chairman Scientific Committee of OPAI National  Conferences, Attended 4 ISPO World Congresses and presented papers organized in different Countries(Leipzig, Germany, Lyon, France, Cape Town, South Africa  and Kobe, Japan). Speaker in a WHO-NRCD International Seminar 2023 on “Approach to Improve Access to Assistive Technology and Products: To Ensure that Everyone Have Sufficient Access”.

Abstract :

Topic - Transforming Prosthetics and Orthotics with Digital Technology: Towards Personalized and Accessible Rehabilitation

Prosthetics and Orthotics (P&O) are undergoing a rapid transformation with the integration of digital technologies, offering new opportunities for personalization and accessibility in rehabilitation. Traditional approaches, reliant on manual fabrication, often limit precision, efficiency, and scalability. The adoption of tools such as 3D scanning, computer-aided design (CAD), and 3D printing has enabled clinicians to create patient-specific devices with greater accuracy and reduced turnaround time. Artificial intelligence (AI) and machine learning further support data-driven decision-making, predicting patient outcomes and optimizing device performance. In parallel, tele-rehabilitation platforms and cloud-based digital workflows are bridging geographical gaps, making specialized care accessible even in resource-constrained settings. These innovations enhance biomechanical alignment, improve patient satisfaction, and reduce overall costs, while promoting active participation of users in the design process. Despite these promising advances, challenges remain, including the need for standardized protocols, specialized training, regulatory frameworks, and considerations of data security and ethics. Nonetheless, the digital shift in P&O signals a movement toward more inclusive, efficient, and outcome-oriented rehabilitation care. By fostering interdisciplinary collaboration among clinicians, engineers, policymakers, and industry leaders, digital technology can be harnessed to transform prosthetic and orthotic services, ensuring personalized solutions and equitable access for diverse populations.

Keywords: Prosthetics and Orthotics, Digital Technology, 3D Printing, CAD/CAM, Artificial Intelligence, Rehabilitation

Profile :

Dr Narayana Subramaniam is a national and international award-winning head and neck oncologist and reconstructive surgeon practicing in Bangalore, India. Trained in India, Australia and the US, his practice revolves around treatment of complex head and neck cancers and tumours. He has a large body of work in virtual surgical planning, 3D printing and dental rehabilitation in head and neck cancer, including a pioneering role in the jaw-in-a-day procedure for oral cancer in India. He innovative approaches have resulted in new approaches and procedures for oral cancers, which he has published and shared through talks and workshops nationally and internationally.

Abstract: Virtual surgical planning and 3D printing have revolutionalized management of benign head and neck disease, becoming a routine part of clinical management. The role in head and neck cancer, especially with respect to facial reconstruction and primary dental rehabilitation in a setting of cancer has lagged because of technical and logistic challenges. Implementing well established technologies into these workflows can now help improve efficacy and outcomes in these complex surgeries, reducing errors and enhancing precision. In this talk, the areas covered will be the role of virtual surgical planning and 3D printing in head and neck cancer surgery, state-of-the-art and future prospects.

Profile

Dr. Srikanth K. N is a trailblazer in joint replacement surgery and orthopaedic innovation, bringing decades of expertise to SSOC. A pioneer in Robotics, Navigation Systems, Augmented Reality, and AI, he has redefined patient care by delivering precise, tailored treatment plans that accelerate recovery and transform lives. With over 10,000 orthopaedic surgeons trained under his mentorship, Dr. Srikanth has become a driving force in shaping India’s medical future. His relentless commitment to innovation, teaching, and patient outcomes continues to set new benchmarks, making him one of the most respected leaders in orthopaedics today.

Abstract

Dr. Srikanth K. N. Of SSOC collaborates closely with RNOH, London & Prof. Alister Hart, widely known as  “hospital hip detective,” in the UK. Our groundbreaking research in 3D printing for orthopaedics is redefining personalized medicine. Our work leverages advanced imaging and 3D-printed models, to precisely map patient-specific anatomy, enabling surgeons to plan complex hip and joint reconstruction with unparalleled accuracy. These innovations reduce surgical risks & operative time, improve implant fit, and accelerate recovery. Inspired by this cutting-edge approach, we integrates 3D planning/ printing and Robotics planning into SSOC, advancing orthopaedic care in India, while ensuring patients benefit from world-class, evidence-based surgical innovation.

Profile :

With extensive experience in the clinical research industry since 2006, Mujeebuddin CS has held various positions in some of the most prominent Pharma CRO and Pharma-IT organizations, including QPS, Parexel, Accenture, Oracle, and IQVIA.

In pursuit of his passion for teaching, he founded ClinoSol Research Pvt. Ltd. in 2019, an organization dedicated to training young minds in different areas of clinical research and placing them as future professionals in the ever-growing industry.

His action-based visions and directions, ClinoSol has seen tremendous growth in the last four years with operations in India from Hyderabad and internationally in Canada, where thousands of students from Medical, Dental, Pharma, and Life Sciences are learning and finding suitable careers every year.

He also has also been an active participant in industry conferences as an Academia Partner since 2020, including ISCR and SCDM and has been a Placement Coordinator for the Indian Pharmaceutical Association.

He has been a speaker at both national and international conferences including ISCR, SCDM, IPC and IPA Student Conclave and academic career and technological conferences, such as G20 Tech Summit.

ClinoSol has received 13 awards within a span of 5 years for the excellence and quality of training provided and for being a highest placement achieving organization (2023).

Abstract :

Topic :

Revolutionizing Healthcare with 3D Digital Twins: Bridging Physical & Virtual for Precision-Driven

Outcomes

Abstract:

In this session, I will take participants on a deep dive into the transformative world of 3D

Digital Twin technology and its fast-growing impact on healthcare, diagnostics, and clinical

research.

As a Clinical Research expert and the Founder & CEO of ClinoSol Research, I will unpack

how digital twins—real-time, data-driven virtual models of human organs and disease

states—are bridging the physical and virtual worlds to enable precision-driven,

personalized healthcare. With the integration of AI, simulation, bioinformatics, and real-

world patient data, digital twins are now playing a central role in drug development,

virtual clinical trials, and predictive treatment planning.

This session will highlight:

• Real-world global use cases (e.g., Siemens, Dassault, Philips, Mayo Clinic)

• How digital twins are accelerating research while reducing trial risks

• Their convergence with IoT, wearable tech, and patient monitoring systems

• Career opportunities and future skills needed to thrive in this ecosystem

• India’s readiness to adopt and innovate in the digital twin landscape

Learning Outcomes:

By the end of the session, participants will:

✔ Understand the core concept and components of 3D digital twins in healthcare

✔ Explore cutting-edge applications in clinical trials, drug simulations, and organ

modeling

✔ Recognize the enabling technologies behind digital twin ecosystems

✔ Gain global and Indian perspectives on industry adoption and trends

✔ Identify emerging career paths and key interdisciplinary skills

✔ Discover how students, researchers, and healthcare professionals can participate in shaping

this frontier

This session is designed to ignite curiosity, share actionable insights, and inspire the next

wave of innovation at the intersection of technology and medicine.

Profile :

Prof. Dr Ashok Puranik(Col), Executive Director AIIMS Guwahati is an internationally recognised trauma surgeon and surgical intensivist, having completed his Post Graduation AFMC Pune and Fellowship in Trauma from the renowned Alfred Hospital, Melbourne, Australia.  He was commissioned in the Indian Army as a Medical Officer in 1985, and during his illustrious service of more than 3 decades in the Indian Army, Prof. Puranik was involved in field as well as peace tenures across the country and abroad which included tenures in Nagaland, Kargil, CI Ops, and Sri Lanka. He also served as the Head of Surgery at the Command Hospital – Southern Command and Armed Forces Medical College, Pune for a duration of 5 years. Notably, Prof. Puranik had also served as an army surgeon in the longest traveling ambulance train ‘Operation Dhanwantari’ – an effort that made into The Guinness Book of World Record.

He was also involved in teaching and mentoring in the fields of advanced laparoscopy, bariatric surgery, damage control surgery in trauma, and emergency management in trauma care.
Prof. Puranik has several accolades to his credit including the GOC in C Award for ‘Outstanding Clinical/ Scientific Achievement for Trauma Surgery’ and various medals for High Altitude and General Services.

Abstract :

Topic: 3D Graphy Medical Technology

3D Medical technology revolutionizes healthcare by enhancing diagnosis, treatment, and surgical planning through advanced imaging and modelling. By converting traditional 2D scans into interactive 3D visualizations, clinicians gain a more accurate understanding of complex anatomical structures. Applications include patient-specific implants, preoperative simulations, and 3D-printed models for education and training. This technology improves precision, reduces surgical risks, and supports personalized medicine. Integration with AI and augmented reality further expands its potential, streamlining workflows and improving patient outcomes. As accessibility and affordability improve, 3D medical innovations are poised to become standard practice across diverse medical fields, from orthopedics to oncology.

Profile :

Dr. Bikramjit Basu is currently serving as Director,CSIR-Central Glass and Ceramic Research Institute,

Kolkata, since November, 2024, on deputation from

the Indian Institute of Science (IISc), Bangalore. After

serving as a faculty at the Indian Institute of

Technology Kanpur (2001-2011), he joined IISc in

May, 2011. After training in the field of Metallurgy and Materials Science, he has been pursuing

research at the confluence of Ceramic Science, Biomaterials, Additive Manufacturing

(laser/electron beam/extrusion-based 3D printing), Biological Science, and Medicine, to

address many unanswered questions related to renewable energy and regenerative. His 250+

peer-reviewed research articles are cited more than 22,800 times with H-index of 75 (Google

Scholar). He has co-authored 5 textbooks, two reference books and one research monograph

related to policy on Biomaterials and Implants. As an Engineering Scientist, he an elected

Fellow of all the National Academies of Engineering, Science and Medicine, including the

Indian National Science Academy (2021), Indian Academy of Sciences (2020), National

Academy of Medical Sciences (2017), Indian National Academy of Engineering (2015), and

National Academy of Sciences, India (2013). A Chartered Engineer of the UK, he has the

unique distinction of being the only ceramic scientist from India to get elected to all the major

international ceramic societies and academies, including the World Academy of Ceramics

(2024), the European Ceramic Society (2023), the American Ceramic Society (2019). A

distinguished Biomaterials Scientist from India, he is an elected fellow of the International

Union of Societies for Biomaterials Science and Engineering (2020), International Academy

of Medical and Biological Engineering (2017) and the American Institute of Medical and

Biological Engineering (2015). He is a recipient of India’s most prestigious Science and

Technology award, Shanti Swarup Bhatnagar Prize (2013) from the Prime Minister of India;

and globally competent awards, like Humboldt Research Award from the Alexander von

Humboldt foundation (2022), and International Richard Brook Award from the European

Ceramic Society (2022). He is currently serving on many advisory panels of the national

institutes, European universities and federal funding agencies as well as major multinational

Abstract

The manufacturability of the cellular structure-based materials represents one of the most

emerging themes in the additive manufacturing of medical implants and devices. This has been

more relevant as natural bone possesses a unique porous architecture, which cannot be

mimicked in conventional manufacturing. Despite recent advances, a critical knowledge gap

persists in connecting scaffold topology and manufacturability with the mechano-biological

responses, governed by asymmetric 3D pore structures. In this perspective, the present study

focuses on selective laser melting of Schwarz diamond-based triply periodic minimal surface

(TPMS) structures in Ti6Al4V, while varying unit cell size from 2.5 to 3.0 mm. The extensive

micro-computed tomography analysis of 3D pore topology using customised design evaluation

protocols established the efficacy of SLM-based optimised process parameters on dimensional

tolerance and manufacturability of the TPMS structures. Intriguingly, an asymmetric

mechanical response with a clinically relevant combination of the compressive elastic modulus

(14-20 GPa), tensile elastic modulus (38 - 55 GPa), compressive strength (413-547 MPa), and

tensile strength (325-475MPa), together with unique 3D pore architecture, closely resembled

the properties of human cortical bone. While fitting the strength/modulus to relative density

data using the Gibson-Ashby model, the bending-dominated asymmetric microstructural

response was revealed with exponents of ~1.5 in compression and ~2.0 in tension. Furthermore,

in vitro studies demonstrate MC3T3-E1 pre-osteoblasts' adhesion, proliferation, and maturation

with modulation of early osteogenic markers and bone mineralisation, both quantitatively and

qualitatively. The confocal microscopy observations revealed the cellular bridging, migration,

and colonisation, indicating excellent cytocompatibility. The present study conclusively

establishes that SDW-TPMS structures offer a compelling combination of cortical bone-

mimicking mechanical properties and a favourable biological response. It highlights their

potential for reconstructive surgeries of load-bearing joints.

Profile :

Prof. Amit Kumar Jaiswal is a Professor and Director of the Centre for Biomaterials, Cellular and Molecular Theranostics (CBCMT) at Vellore Institute of Technology. He earned his PhD in Biomaterials and Tissue Engineering from IIT Bombay. He has received multiple competitive grants from national government agencies. His impactful work is published in numerous peer reviewed publications and several granted patents. Prof. Jaiswal also serves as an Associate Editor for the Journal of the Australian Ceramic Society, reflecting his contribution in the materials science community. His work continues to advance the development of innovative therapeutic and diagnostic platforms.

Abstract :

3D printing is an advanced additive manufacturing technique that helps in the fabrication of complex structures to mimic the native tissue in biomedical research. Biomaterials (synthetic or natural) can be printed by combining them with living cells, or drug-loaded biomaterials for in vitro tissue modelling and regenerative medicine. In our lab, we are focusing on the development of 3D in vitro models. In one of our projects, we are 3D printing a thermoplastic scaffold and developing an EMT-based cancer model using suitable cues. In another work, we are aiming to 3D bioprint a dual-cell bilayered skin model for cosmetic safety and efficacy testing.

Profile :

Dr. Pradeep Singh Negi earned his B.Sc. (Agriculture & Animal Husbandry) and M.Sc. (Food Technology) degrees from G. B. Pant University of Agriculture and Technology, Pantnagar; and Ph.D. in Horticulture from the Indian Agricultural Research Institute, New Delhi. He joined CSIR-Central Food Technological Research Institute (CFTRI), Mysuru, in June 1997 as a Junior Scientist and is currently serving as Chief Scientist and Head of the Fruit & Vegetable Technology Department. His research activities include Non-thermal processing for product development and decontamination of fresh produce, and development of synbiotic and 3 D printed food products for personalized nutrition. 

Abstract :

Topic - 3D Food Printing: Precision and Nutrition. 

3D Food printing facilitates customization of structures with specific shapes and textures, and offers food to be consumed in a more aesthetic way. It facilitates food manufacturing based on personal nutritional requirements. 3D Food printing can be used for the development of functional foods by enriching with required nutrients, substituting undesirable elements, and printing multi-ingredient appealing food for various needs. Difficulties in eating and swallowing food make people suffer from the risk of malnutrition, sarcopenia, and altered gastrointestinal conditions. Similarly, conditions like hypertension, cardiovascular and renal diseases necessitate individuals to consume potassium-restricted diets. Personalized food can play an important role in ensuring adequate nutrient intake in such conditions. The research talk will highlight the development of 3D printed products suitable for consumption by people with swallowing difficulties and potassium-restricted diets.

Profile:

Dr. Subham Banerjee currently working as an Associate Professor in the Department of Pharmaceutics, National Institute of Pharmaceutical Education and Research (NIPER)-Guwahati, Assam. He also served as a coordinator cum co-principal investigator in the National Centre of Pharmacoengineering (State-of-the-art-facility) funded under the Drugs Pharmaceuticals Research Programme (DPRP), DST, Govt. of India. He published 120+ research articles in peer-reviewed high impact National/International journals. He is the Editorial board member of the journal 3D Printing in Medicine, Springer Nature. Dr. Banerjee’s research area focuses on Pharmacoengineering including Pharmaceutical Additive Manufacturing (AM)/3D & 4D Printing, New Materials for Pharmaceutical AM, Drug Delivery, and Cutting-edge Translational Pharmaceutical Research.

Abstract:

Topic - Generating Effective Medicines using Three Dimensions

Personalized and customized medicines represent the future of precision healthcare, moving away from the “one-size-fits-all” approach. Our research efforts will highlight how pharmaceutical additive manufacturing (PAM) — or 3D/4D printing — is revolutionizing drug delivery systems by enabling tailored release profiles and patient-specific therapies. Our research employs cutting-edge platform technologies such as fused deposition modeling (FDM), stereolithography (SLA), selective laser sintering (SLS), semi-solid extrusion (SSE), and direct powder extrusion (DPE) to design innovative formulations and devices that address complex therapeutic needs.

Profile :

Dr. Anil Kumar PR is Scientist G at the Sree Chitra Tirunal Institute for Medical Sciences and Technology (SCTIMST), Trivandrum, where he leads the Division of Tissue Culture, 3D Bioprinting, and the Biofabrication Facility. He also serves as a Visiting Professor at the Stem Cell and Regenerative Medicine Center, Sree Anjaneya Institute for Dental Sciences, Kerala. Dr. Anil is an advisory board member of the Additive Manufacturing Society of India and chairs the committee drafting Indian Standards for 3D Bioprinting and 3D Printed Implants, underscoring his national leadership in this emerging field. His research focuses on advanced cell technologies, including alternative hepatotoxicity test systems, 3D bioprinted liver constructs, tissue-specific bioinks, microfluidic culture systems, and cell sheet engineering. His pioneering innovations include temperature-sensitive culture surfaces, specialized bioinks, and high-throughput in vitro culture platforms, all developed indigenously. Dr. Anil earned his postgraduate degree in Biotechnology from Mahatma Gandhi University in 1997 and completed his PhD in Liver Tissue Engineering at SCTIMST in 2007, followed by postdoctoral research at the National University of Singapore supported by the Jawaharlal Nehru Fellowship. He has received notable awards such as the Young Scientist Award (2005) and DST-IIPA Gold Medal (2010). With over 50 peer-reviewed publications, 10 book chapters, five Indian patents, and four design registrations, Dr. Anil plays a vital role in advancing regenerative medicine and biofabrication through his academic and research contributions nationwide.

Abstract :

Topic : Innovations and Progress in 3D Bioprinting with Focus on Regulatory Compliance and Clinical Translation

3D bioprinting is a transformative technology in regenerative medicine, enabling the precise fabrication of complex tissue constructs by depositing cells and biomaterials in a spatially controlled manner. The core bioprinting techniques each offer unique capabilities include Extrusion-Based (pneumatic extrusion, mechanical extrusion), Droplet-Based (inkjet bioprinting, acoustic wave–powered printing, electrohydrodynamic jetting), Laser-Assisted (laser-induced forward transfer, two-photon polymerization), Light-Based (stereolithography, digital light processing),.   Central to all these platforms is the bioink, a formulation of composed of cells, biomaterials, and growth supplements. Recent innovations in bioprinting include volumetric bioprinting (VBP), Ultrafast Acoustic Wave–Powered Bioprinting (Dynamic Interface Printing), Freeform Reversible Embedding of Suspended Hydrogels (FRESH).  More advancements are in development such as 4D bioprinting and microgravity bioprinting).  Specific technologies require tailored bioinks, like photocurable formulations for stereolithography, very low viscous bioinks for inkjet printing, shear-thinning high viscous bioinks for extrusion-based systems.  Advancing the 3D bioprinting to clinical translation requires careful consideration of several critical factors, including sourcing of viable and functional cells, selection of biocompatible and regulatory-grade biomaterials, scalable bioreactor integration for tissue maturation, and adherence to Good Laboratory Practice (GLP) and Good Manufacturing Practice (GMP) standards. Furthermore, evolving regulatory frameworks must address product classification, reproducibility, sterility, and patient safety. Interdisciplinary collaboration between cell biologists, bioengineers, material scientists, clinicians, and regulatory agencies is essential to realize the clinical potential of bioprinting technologies in tissue engineering and regenerative medicine.

Profile :

B. Ravi is the Director of National Institute of Technology Karnataka at Surathkal, Mangalore. He is also Institute Chair Professor at IIT Bombay, where he founded BETIC (Biomedical Engineering & Technology Innovation Centre) and headed Desai Sethi School of Entrepreneurship. He mentored over 120 PhD and Masters students and startup founders, and shared the relevant knowledge through 300 publications, 400 talks, and 100 workshops for teachers and industry professionals. Many institutes and agencies utilize his expert advice. He is committed to creating model institutes with global excellence and local relevance by connecting research, education, innovation and entrepreneurship.

Profile :

Himaja Chopade a Product Manager at 3D Surgical with 5 years of specialized MedTech experience in advanced medical imaging which is CT/MRI segmentation. I excel at translating clinical workflows into scalable product solutions, leading cross-functional teams to develop patient-specific surgical planning platforms. I have successfully delivered MySegmenter's automated segmentation engine and VR education systems from concept to commercial deployment, improving surgical precision and training efficiency. My expertise includes product lifecycle management, go-to-market strategy, custom implant design, segmentation and additive manufacturing processes. I consistently deliver FDA-compliant solutions that enhance surgical outcomes and accelerate clinical innovation in healthcare technology.

Abstract :

Topic - Democratizing 3D Medical Segmentation and Mixed Reality: MySegmenter’s.

Mission to Make Advanced Imaging and Virtual Anatomy Accessible to All. Abstract MySegmenter Software, with US FDA 510(k)-cleared DICOM segmentation and 3D modeling, advances both education and clinical care. It combines semi-automated and manual tools to rapidly create precise patient-specific models from CT, MRI, and PET scans. Enhancing accuracy and efficiency, it transforms medical imaging into interactive 3D representations, offering students superior spatial understanding ofanatomy and reshaping how they learn complex structures. The VR headset in mixed reality mode enables students to learn anatomy through immersive 3D visualization, while surgeons overlay patient-specific data during operations for greater precision. By combining education with clinical use and offering affordable desktop-to-VR workflows and academic packages, MySegmenter democratizes advanced imaging, fostering innovation, improving anatomical learning, and enhancing patient care worldwide.

Dr. Jikku Jose is a visionary biotechnology entrepreneur, leader, and researcher who has made significant contributions to the field of biotechnology. As the founder and leader of Scire Science in Kochi, India, she has established a state-of-the-art research and development organization focused on 3D bioprinting, cell culture, biomaterials development, advancedbiotechnology training, and contract research support.

Holding a Ph.D. in Biotechnology from Cochin University of Science & Technology, Dr. Jose has demonstrated exceptional expertise in her field. Her research has been published and presented in numerous international and national journals and conferences. She has also organized several international scientific conferences and workshops.

As a research member of the Indian Institute of Sustainable Development and consultant for various companies, Dr. Jose provides valuable insights and guidance to organizations seeking to advance their research and development capabilities.

She serves as a Board of Studies member, industry partner and scientific Advisory Board Member for multiple organizations.

A dedicated educator and mentor, Dr. Jose has guided over 450 postgraduate students and supervised a Post Doctoral Fellow working on nutraceutical product development from microalgae. Her commitment to fostering the next generation of biotechnology leaders has earned her recognition as a role model and inspiration to many.

Dr. Jose has received numerous awards and honors for her contributions to science, education, and social initiatives,including the Social Entrepreneur Award and a special honor on Women's Day in 2017. She was a panelist at the Women Science Congress during the Indian Science Congress in 2020.

Under Dr. Jose's leadership, Scire Science achieved a milestone with the launch of India's first indigenous bioink in 2024.

This breakthrough innovation has the potential to revolutionize bioprinting and regenerative medicine in India.

Dr. Jose believes in collaborative and multidisciplinary approaches, leveraging diverse disciplines to accelerate research

translation into innovative products and solutions that benefit society.

Dr. Jikku Jose's remarkable journey and contributions to biotechnology have been featured on Rukhumbhai Initiatives, aprestigious platform honoring Indian women in STEM. She is a sought-after speaker and scientific session chair at numerous conferences. Her pioneering legacy in biotechnology will inspire future generations of researchers, entrepreneurs, and leaders.

Profile :

Dr. Sai Kalyan Surapaneni is an academician, clinician, and biomaterials researcher, currently serving as the Director of Research and Academics at Prevest Research Laboratory, India. He has played a key role in advancing translational research in dental biomaterials and digital technologies.

Dr. Surapaneni obtained his BDS from SDM College of Dentistry, followed by a Master’s degree in Conservative Dentistry and Endodontics from Pravara Institute of Medical Sciences. He further specialized with a Master’s in Implantology from the University of Bari Aldo Moro, Italy, and later earned his PhD in Endodontics, with a focus on nanobiomaterials, from Pravara Institute of Medical Sciences.

In addition to his clinical and academic pursuits, Dr. Surapaneni is a certified lead auditor for Quality Management Systems in Medical Devices and is actively engaged in regulatory affairs. He has collaborated extensively with medical device manufacturers as a key opinion leader, contributing to product innovation, validation, and quality control.

He is a Fellow of the Indian Board of Microrestorative and Endodontics, where he also serves as Director, and is a member of the IACDE Special Committee on Regenerative Endodontics, working towards the standardization of clinical protocols. Dr. Surapaneni has authored a book on regenerative endodontics and has published extensively in peer-reviewed journals. His research, leadership, and international collaborations reflect his commitment to bridging the gap between academic research, biomaterial innovation, and real-world clinical applications.

Abstract -

Dental 3D Resins: Conventional Art to Chairside Digital Artistry

The integration of polymeric materials in dentistry has transformed clinical practice due to their enhanced physical, mechanical, and biological properties, alongside cost-effective manufacturing. Among these, 3D printing resins have emerged as a disruptive force, redefining workflows from laboratory-based processes to direct chairside applications. Advancements in polymer chemistry, printer hardware, and digital design software now allow clinicians to fabricate highly customized, automated dental devices with remarkable precision and efficiency.

This lecture will trace the evolution of dental polymers and their journey into additive manufacturing, highlighting the paradigm shift from conventional craftsmanship to digital artistry. It will explore the role of digital workflows in reducing reliance on manual skill, the current landscape of 3D printing technologies, and the transformative impact on clinical practice and patient care. Future directions and research opportunities in dental 3D resins will also be discussed, offering a comprehensive perspective on how this rapidly evolving field continues to bridge art, science, and technology in dentistry.