This project involves building a small-scale, functional PCR simulator. You will construct a device that mimics the temperature cycling essential for Polymerase Chain Reaction, integrating microcontrollers, temperature sensors, and heating elements to precisely control thermal ramps and plateaus. The final tangible outcome will be a compact, operational benchtop unit capable of executing a programmable thermal profile (denaturation, annealing, extension cycles) and displaying its real-time temperature progression. This demonstrates a foundational understanding of embedded control systems applied to a critical biotech process, translating theoretical knowledge into a physical, interactive system. The integration will be tightly coupled, with all components working synergistically to achieve the desired thermal behavior within a cohesive enclosure.
This type of project is geared for individuals who are driven by a curiosity about how biotech equipment functions, possess a hands-on problem-solving temperament, and appreciate the cognitive satisfaction of bringing an abstract scientific principle to life through engineering.
Your strengths and how they will be useful
Your strengths and how they will be useful
Skills you will develop
Hard Skills (4)
Soft Skills (6)
Unravel to explain how each skill will be learned / performed successfully during the project.
Potential friction points and how to mitigate them
Potential friction points and how to mitigate them
Summary
By completing this, you become a tangible builder, capable of translating abstract scientific principles into functional hardware. Your thinking evolves from conceptual understanding to practical implementation, enabling you to break down complex system requirements into manageable electrical and software components. Your technical range expands to include hands-on microcontroller programming, sensor integration, and basic thermal engineering. This allows you to engage with challenges in practical lab automation, hardware development for scientific instruments, and prototyping niche bio-tech devices. This project opens the door to further exploration in areas like bioprinting, advanced lab equipment design, and custom scientific tooling, marking you as an individual who not only understands the theory but can also construct its physical manifestation.
Summary
By completing this, you become a tangible builder, capable of translating abstract scientific principles into functional hardware. Your thinking evolves from conceptual understanding to practical implementation, enabling you to break down complex system requirements into manageable electrical and software components. Your technical range expands to include hands-on microcontroller programming, sensor integration, and basic thermal engineering. This allows you to engage with challenges in practical lab automation, hardware development for scientific instruments, and prototyping niche bio-tech devices. This project opens the door to further exploration in areas like bioprinting, advanced lab equipment design, and custom scientific tooling, marking you as an individual who not only understands the theory but can also construct its physical manifestation.