Apr 2025 – Jul 2025 · 3 mos · Hamburg, Germany · On-site

• I led applied tutorials focused on translating dynamic system theory into executable engineering workflows.
• The emphasis was not formula memorization, but model validation and constraint awareness.
• Core Contributions
• Guided students through kinematic and dynamic modeling using SOLIDWORKS and Artas SAM for motion and force analysis
• Structured exercises that required validating model assumptions against simulated system response
• Demonstrated how tolerances, inertia modeling, and boundary conditions affect real mechanical behavior
• Trained students to evaluate system feasibility before prototyping through structured simulation workflows
• Focus: teaching mechanical systems as constrained physical architectures, not abstract equations.

Apr 2022 – Aug 2025 · 3 yrs 4 mos · Hamburg, Germany · On-site

• I worked on applied robotics and human machine interaction systems with an emphasis on physical implementation over theoretical abstraction.
• My focus was translating dynamic models and control strategies into measurable hardware behavior under real-world constraints.
• Core Contributions
• Designed and validated haptic interaction systems, analyzing stability margins, feedback fidelity, and actuator limitations
• Implemented kinematic and dynamic models in simulation and hardware to evaluate sensitivity to parameter variation
• Developed autonomous navigation modules integrating sensor fusion, state estimation, and control logic
• Conducted experimental validation to identify performance bottlenecks, instability sources, and integration friction
• Contributed to system-level integration across mechanical design, sensing pipelines, and embedded control layers
• Focus: bridging theoretical system models with physical behavior under real constraints.

Sep 2023 – Dec 2025 · 2 yrs 3 mos · Hamburg, Germany · On-site

• I co-founded VRobotia to design a structured robotics learning infrastructure rather than a course center.
• The goal was to treat robotics education as a system problem: hardware exposure, embedded programming, systems integration, pedagogy, operations, and economics aligned into one scalable architecture.
• As Product Architect, I defined the end-to-end learning pipeline from first technical exposure to system-level reasoning. The curriculum integrates mechanics, electronics, microcontrollers, control logic, and applied robotics into cohesive execution workflows that mirror real robotic system development.
• Core Contributions
• Designed the end-to-end product architecture across robotics and VR modules, structuring progressive skill pathways grounded in real hardware systems
• Translated engineering execution principles into modular curriculum blocks that reflect real-world constraints such as tolerances, timing, integration friction, and debugging discipline
• Built pricing, cohort, and retention models aligned with operational cost structure and scalability constraints
• Conducted structured customer discovery with 50+ parents and students to validate depth expectations, demand elasticity, and willingness to pay
• Scaled to 500+ active learners through disciplined product iteration, ecosystem positioning, and measurable outcome tracking
• Established feedback loops between learner friction, curriculum evolution, and roadmap prioritization
• Recruited and trained educators to maintain technical rigor and delivery consistency across cohorts
• Focus: building robotics education as a scalable system architecture, not an activity program.

Oct 2021 – Mar 2022 · 5 mos · Hamburg, Germany · Remote

• I developed and validated an interactive robotics prototype as part of the Fishing for Experience program in collaboration with Stadtreinigung Hamburg and TUHH.
• The objective was to design a physically deployed “Talking Garbage Stand” that influenced user behavior through embedded sensing, actuation, and real-time interaction logic.
• Core Contributions
• Designed and implemented embedded control logic using Arduino IDE to manage sensor input, state transitions, and user feedback mechanisms
• Integrated hardware components including sensors, actuators, and audio modules into a reliable physical system
• Conducted iterative testing to identify wiring faults, timing inconsistencies, and integration instability
• Validated system responsiveness and behavioral reliability under repeated public interaction scenarios
• Collaborated within a multidisciplinary team to move from concept to functional prototype
• Focus: validating embedded system reliability under real user interaction, not just achieving functional behavior.

May 2018 – May 2019 · 1 yr · Jalandhar · On-site

• I led a student-run organization responsible for planning and executing large-scale university events under real operational constraints.
• The role required translating high-level objectives from the Division of Student Welfare into executable plans involving logistics, budgeting, vendor coordination, and cross-functional student teams.
• Core Contributions
• Directed the execution of 30+ campus events, managing timelines, resource allocation, and on-site coordination
• Structured operational workflows to reduce planning friction and last-minute failure points
• Led a multi-member team, delegating responsibilities with defined ownership and accountability
• Coordinated with university administration, vendors, and sponsors to secure infrastructure and funding
• Managed risk during live events, resolving logistical breakdowns without service disruption
• Focus: delivering repeatable operational execution under time, budget, and coordination constraints.

Jun 2017 – Jul 2017 · 1 mo · E-14/15/16, Bhosari Industrial Area, Pune- 411 026 · On-site

• I worked in an industrial foundry environment operating automated mould-making systems and observing end-to-end casting workflows under production constraints.
• The role exposed me to high-throughput manufacturing where reliability, cycle time, and process discipline directly affect output quality.
• Core Contributions
• Operated SINTO-FDNX automatic mould-making machinery using sand aeration technology, monitoring process stability and output consistency
• Observed full casting workflows from mould preparation to finishing, analyzing how upstream process variation propagates downstream
• Documented production flow, identifying bottlenecks, quality risks, and efficiency constraints
• Worked alongside line engineers to understand machine calibration, tolerance control, and failure recovery procedures
• Focus: understanding how industrial systems achieve repeatable output under real material, timing, and quality constraints.