• Utilized waterjet cutting technology to meticulously design and fabricate 100 steel and copper dog bone specimens individually.• Demonstrated expertise in resolving waterjet cutter nozzle blockages, resulting in a 40% increase in manufacturing efficiency.• Designed and assembled a Bosch Rexroth safety guard for a loading machine, enhancing user satisfaction by 10%.• Reduced safety guard costs by £400 through resourceful repurposing of stock materials.• Manufactured four levelling tables for the oedometer to improve experimental results and data quality, resulting in a cost savings of £480.• Produced 50 portal frames for undergraduate practical sessions, cutting costs by 80% compared to external resources.• Collaborated effectively with students, academics, and technical staff to facilitate laboratory use in Civil, Mechanical, and Material Engineering.• Ensured operational readiness of laboratory facilities, aligning them with university teaching and research requirements.• Conducted equipment maintenance and servicing within the area of responsibility and maintained maintenance records accordingly.

• Led a dynamic team of seven individuals, overseeing the design and development of a new chassis, impact attenuator, quick jack, and push bar for the Formula 1 racing car project.• Demonstrated exceptional leadership by thoroughly interpreting competition regulations, delegating tasks, and monitoring progress to achieve crucial project milestones.• Fostered smooth collaboration with the team principal and other subteam leaders to ensure seamless integration of chassis components into the comprehensive car design.• Conducted a comprehensive risk assessment to identify potential hazards and implement measures to mitigate risks.• Collaborated with technicians to coordinate inductions for team members prior to manufacturing parts, ensuring a secure operational environment.• Implemented a robust system of regular progress updates, enhancing subteam efficiency and consequently elevating the overall quality of project outcomes.• Supervised team members in completing the design of a new chassis intended for implementation in future electric car models.• Successfully delivered impact attenuator, quick jack, and push bar components with precision, collectively contributing to an impressive 20% of the total competition points.

Project title: Ex-vivo Testing of a Self-Propelled Capsule Robot for Gastrointestinal Endoscopy• Conducted a comprehensive technical review of existing biopsy and anchoring modules within the wireless-capsule endoscope, effectively identifying their respective strengths and weaknesses.• Played an active role in team discussions during weekly meetings, effectively illustrating the unique features of the biopsy design.• Designed a novel biopsy module that enabled the collection of tissue samples three times per actuation, occupying 15% less volume than previous designs.• Acquired proficiency in Ansys Workbench through self-directed learning, enabling detailed analysis of the biopsy module's performance.• Ensured an 80% success rate for tissue collection through thorough analysis, contributing to the optimization of the biopsy design.

• Worked in a busy and demanding environment and flexibly worked on different tasks such as taking orders, cooking and delivering when needed.• Maintained cleanliness of kitchen and equipment, ensuring the premises are always cleaned to the highest standard, following the requirements of the cleaning schedules.• Proactively handling with all enquiries and complaints to satisfy customers’ needs effectively.