Radiation Resistant Lighting Ben Fiedler Supervisor: J. Devine.

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Presentation transcript:

Radiation Resistant Lighting Ben Fiedler Supervisor: J. Devine

Context LHC generates radiation when running Maintenance and upgrades are performed by humans in between runs  need for proper heating, cooling, ventilation and lighting Goal: Develop a radiation resistant lighting system for the LHC My project: emergency lighting for safe egress

Emergency lighting Radiation resistant light system is installed already (“test zones”) Open question: How long will these luminaires last? System level test (“the whole thing”): 100 kGy: Loss of approx. 40% of light output Functional validation My project: Component level test for LEDs and PMMA plastic Gain better understanding of behavior of components Estimate lifetime of components  System lifetime

Test system design Design, solder and program a test box Measure the light output of a LED over an extended period of time Components: LED to be tested Light sensor Arduino Temperature sensor USB device for logging data Light tight box Source code (See it on GitHub)GitHub

How it works 1.The system is connected to a logging device 2.The system calibrates itself a.Initial conditions (LED off) are determined b.The LED is switched on c.LED achieves operating temperature

LED operation src:

LED temperature vs relative light output

How it works 1.The system is connected to a logging device 2.The system calibrates itself a.Initial conditions (LED off) are determined b.The LED is switched on c.LED achieves operating temperature 3.Actual data is recorded Once a minute Both light output and temperature

The Test Box Plastic box with all components installed inside Cables to provide power and take data: Ingoing: The LED and its power supply Outgoing: USB cable to connect to logging device External program controls interior

Data capturing Three Variables in testing: Radiation  This is the important one Time LED temperature Elimination of variable temperature by waiting for calibration Long sampling time accounts for time variable Radiation left as only parameter

Example Data (one sample)

Example Data (avg. long run)

Conclusion Test Box is minimal working product built in two weeks Minor errors still included: Too large heat sink  Use an isolator Future work includes: PCB design for “mass-production” Enhancing box features, more program features (automated plotting, …) Design the same system for PMMA plastic / glass  color output

Evaluation Work was combination of hardware and software work Mostly independent work, encouragement to work by myself and implement my own solutions I enjoyed it a lot and learned much about electrical engineering, microcontrollers and hardware-software interfaces Only criticism: Delivery time of the system’s components, therefore I idled some time

Thank you for your attention Any questions left?