I work across the path from engineering data to verified hardware. My experience combines drawing and GD&T interpretation, manufacturing and NPI support, hands-on fault diagnosis and repair, dimensional inspection, functional test, product data control and structured process improvement.
The strongest proof is not a software list. It is the ability to understand a technical problem, control the information around it, improve the method and verify the result.
Reduced avoidable delay by improving inspection routines, structuring fault diagnosis and standardising technical documentation and handover information.
Own and verify BoM and routing data in Hive ERP and maintain controlled work instructions, inspection records and technical documentation with configuration traceability.
Translate drawings, GD&T callouts and acceptance criteria into practical manufacturing, assembly and inspection activity, with feedback into manufacturability and process improvement.
My professional work sits between engineering definition and shop-floor execution: interpreting requirements, diagnosing hardware, controlling product data, supporting quality decisions and improving repeatability.
Hands-on engineering across hydraulic, mechanical and electro-mechanical assemblies, combining diagnosis and test with drawing interpretation, product-data control and process improvement.
Worked across design, quality and manufacturing during production and NPI of aerospace components, translating engineering data into practical build and inspection activity.
Worked with technical manuals, drawings and service bulletins and supported inspection/overhaul activity on fan blades, compressor vanes, combustor stators and fuel-system components.
These case studies show analysis, design thinking and technical judgement. They sit behind the professional experience rather than replacing it.
01 · MSc thesis
Compared candidate shielding materials and thicknesses for crew protection against Galactic Cosmic Rays and Solar Particle Events using literature review, ANSYS-based modelling and separate dose-attenuation calculations.
02 · Integrated build
Four-person project taking an aircraft from CAD through 3D-printed manufacture, propulsion and avionics integration, assembly and flight test.
03 · CAD development
Guided CATIA V5 exercise focused on structured feature-based modelling, blade construction, rotational geometry and circular-pattern operations.
The value I bring is the connection between product definition, practical hardware, inspection, quality evidence and repeatable execution.
CAD and product-data skills backed by practical understanding of interfaces, access, tolerances and maintainability.
Experience translating engineering requirements into practical manufacturing, assembly and inspection processes.
Dimensional and functional verification using drawings, specifications, calibrated measurement and controlled records.
Root-cause and corrective-action methods used to contain problems, identify causes and improve the process around them.
Hands-on exposure to the interfaces and failure modes that influence design, assembly, inspection and maintainability.
Postgraduate analysis and technical research used to compare alternatives, document assumptions and communicate trade-offs.
Formal mechanical/aerospace education complements professional experience in manufacturing, repair, inspection, quality and test.
University of Strathclyde, Glasgow
Sandip University, Nashik
Research interests include propulsion, sustainable aviation and the engineering trade-offs involved in lower-carbon flight.
Published in Engineering Innovations. Reviews hybrid-electric propulsion, sustainable aviation fuels, hydrogen and the technical, economic and infrastructure challenges to commercial adoption.
I am open to UK roles across mechanical design, manufacturing, test and quality engineering where practical hardware knowledge, controlled product data and structured problem solving are valued.