Undergraduate students from Engineering, Design, Architecture, Management, Social Sciences & Medical Sciences disciplines are invited to create innovative solutions addressing real-world challenges.
Participants are encouraged to develop creative, practical, and scalable product ideas that can positively impact society, industries, and communities.
The themes for AAKRUTI Innovation Competition 2026 focus on solving real-world problems using engineering innovation and design thinking.
Theme 1 - Robotics
Robotics is transforming industries, homes, healthcare, and disaster response. Intelligent robotic systems can improve efficiency, safety, and productivity while performing tasks that are dangerous or difficult for humans.
WHAT TO DESIGN?
Students can design innovative robotic solutions such as:
- Industrial automation robots
- Smart home service robots
- Disaster response or rescue robots
- Defense and surveillance robotics
- Bio-inspired robots
- Space exploration robotics
- Robotics for agriculture or healthcare
The solution should demonstrate automation, intelligence, safety, and practical usability.
HOW TO DESIGN?
Students should:
- Identify a real-world problem where robotics can improve efficiency or safety
- Develop a robotic system or automated mechanism
- Design mechanical structure, control system, and operational workflow
- Consider energy efficiency, reliability, and user interaction
Validate the concept through simulation or prototype design
WHO WILL GET THE BENEFITS?
- Industries and manufacturing sectors
- Emergency services and disaster management teams
- Defense and security organizations
- Healthcare providers
- Everyday users in homes and workplaces
Theme 2 – Local Community Problems
Many communities/localities face everyday challenges related to infrastructure, sanitation, water access, waste management, and public services. Engineering innovation can play a key role in improving the quality of life for local communities.
WHAT TO DESIGN?
Students can design solutions addressing:
- Waste management and recycling systems
- Water conservation and purification systems
- Affordable agricultural technologies
- Smart village or smart city infrastructure
- Energy-efficient community utilities
- Public sanitation and hygiene solutions
The design should be affordable, sustainable, and easy to implement.
HOW TO DESIGN?
Students should:
- Identify a real problem affecting local communities
- Analyze the root cause and impact of the problem
- Design a practical engineering solution or product
- Ensure the design is cost-effective and scalable
Consider environmental sustainability and social impact
WHO WILL GET THE BENEFITS?
- Local communities and rural populations
- Urban municipalities
- Farmers and small-scale industries
- Environmental ecosystems
Theme 3 – Healthcare Innovation
Healthcare systems require innovative technologies to improve patient care, accessibility, and medical efficiency. Engineering-driven healthcare innovations can help create affordable and accessible medical solutions.
WHAT TO DESIGN?
Students can design:
- Affordable medical devices
- Assistive technologies for disabled individuals
- Wearable health monitoring systems
- Rehabilitation equipment
- Emergency response medical tools
- Remote healthcare or telemedicine devices
Solutions should focus on affordability, accessibility, reliability, and patient safety.
HOW TO DESIGN?
Students should:
- Identify healthcare challenges faced by patients or medical professionals
- Develop a solution addressing the problem
- Design ergonomic, easy-to-use medical equipment
- Consider safety, hygiene, and usability
Validate design through simulation, concept modeling, or prototype development
WHO WILL GET THE BENEFITS?
- Patients and healthcare providers
- Hospitals and medical institutions
- Elderly and differently-abled individuals
- Communities with limited healthcare access
Theme 4 – Mobility
Mobility is a key factor in the development of modern societies. Sustainable and efficient transportation systems are essential for economic growth, environmental sustainability, and improved urban living.
WHAT TO DESIGN?
Students can design solutions such as:
- Next-generation electric vehicles
- Energy-efficient transportation systems
- Smart traffic management solutions
- Intelligent public transportation systems
- Sustainable personal mobility devices
- Future mobility concepts for cities
The goal is to create efficient, environmentally friendly, and accessible mobility solutions.
HOW TO DESIGN?
Students should:
- Identify transportation challenges or inefficiencies
- Develop a mobility solution addressing sustainability and efficiency
- Design systems that reduce energy consumption or emissions
- Integrate smart technologies such as sensors or data systems
Ensure the solution improves safety and usability
WHO WILL GET THE BENEFITS?
- Urban commuters and public transportation users
- Governments and city planners
- Transportation industries
- The environment through reduced emissions
