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Main Authors: Li, Shuang, Lin, Zhiyuan, Li, Sen, Zhang, Mohan, Zhang, Fengquan, Hu, Jin, Liu, Xiaotong, Meng, Lin, Byrnes, Tim, Ivannikov, Valentin
Format: Preprint
Published: 2025
Subjects:
Online Access:https://arxiv.org/abs/2510.27381
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author Li, Shuang
Lin, Zhiyuan
Li, Sen
Zhang, Mohan
Zhang, Fengquan
Hu, Jin
Liu, Xiaotong
Meng, Lin
Byrnes, Tim
Ivannikov, Valentin
author_facet Li, Shuang
Lin, Zhiyuan
Li, Sen
Zhang, Mohan
Zhang, Fengquan
Hu, Jin
Liu, Xiaotong
Meng, Lin
Byrnes, Tim
Ivannikov, Valentin
contents A robust pre-emptive kill switch for cold atom experiments is introduced to significantly reduce costly system reassembly or replacement. The design incorporates upper (alarm) and lower (evaporation) event detection mechanisms based on predefined thresholds. Meanwhile, a duty cycle timing methodology is used to avert unintentional activation of the dispenser in circumstances where pulse signals occur. The circuit employs generic components, a modular design, and formalized logic, ensuring cost-effectiveness, making the design suitable for school laboratories and other research environments. This design is highly versatile and can be applied to other sensitive devices beyond dispensers, such as heating filaments, titanium sublimation pumps, tungsten lamps, and comparable systems.
format Preprint
id arxiv_https___arxiv_org_abs_2510_27381
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Pre-emptive parametric kill switch for evaporative atomic sources in vacuum
Li, Shuang
Lin, Zhiyuan
Li, Sen
Zhang, Mohan
Zhang, Fengquan
Hu, Jin
Liu, Xiaotong
Meng, Lin
Byrnes, Tim
Ivannikov, Valentin
Atomic Physics
A robust pre-emptive kill switch for cold atom experiments is introduced to significantly reduce costly system reassembly or replacement. The design incorporates upper (alarm) and lower (evaporation) event detection mechanisms based on predefined thresholds. Meanwhile, a duty cycle timing methodology is used to avert unintentional activation of the dispenser in circumstances where pulse signals occur. The circuit employs generic components, a modular design, and formalized logic, ensuring cost-effectiveness, making the design suitable for school laboratories and other research environments. This design is highly versatile and can be applied to other sensitive devices beyond dispensers, such as heating filaments, titanium sublimation pumps, tungsten lamps, and comparable systems.
title Pre-emptive parametric kill switch for evaporative atomic sources in vacuum
topic Atomic Physics
url https://arxiv.org/abs/2510.27381