@article {1204,
	title = {The mobile sleep lab app: {An} open-source framework for mobile sleep assessment based on consumer-grade wearable devices},
	journal = {Computers in Biology and Medicine},
	volume = {103},
	year = {2018},
	pages = {8{\textendash}16},
	abstract = {BACKGROUND: Sleep disorders have a prevalence of up to 50\% and are commonly diagnosed using polysomnography. However, polysomnography requires trained staff and specific equipment in a laboratory setting, which are expensive and limited resources are available. Mobile and wearable devices such as fitness wristbands can perform limited sleep monitoring but are not evaluated well. Here, the development and evaluation of a mobile application to record and synchronize data from consumer-grade sensors suitable for sleep monitoring is presented and evaluated for data collection capability in a clinical trial. METHODS: Wearable and ambient consumer-grade sensors were selected to mimic the functionalities of clinical sleep laboratories. Then, a modular application was developed for recording, processing and visualizing the sensor data. A validation was performed in three phases: (1) sensor functionalities were evaluated, (2) self-experiments were performed in full-night experiments, and (3) the application was tested for usability in a clinical trial on primary snoring. RESULTS: The evaluation of the sensors indicated their suitability for assessing basic sleep characteristics. Additionally, the application successfully recorded full-night sleep. The collected data was of sufficient quality to detect and measure body movements, cardiac activity, snoring and brightness. The ongoing clinical trial phase showed the successful deployment of the application by medical professionals. CONCLUSION: The proposed software demonstrated a strong potential for medical usage. With low costs, it can be proposed for screening, long-term monitoring or in resource-austere environments. However, further validations are needed, in particular the comparison to a clinical sleep laboratory.},
	keywords = {Mobile sleep laboratory, Sleep screening, Smartphone, Telemedicine, Wearable technology},
	issn = {1879-0534},
	doi = {10.1016/j.compbiomed.2018.09.025},
	author = {Burgdorf, Andreas and G{\"u}the, Inga and Jovanovi{\'c}, Marko and Kutafina, Ekaterina and Kohlschein, Christian and Bitsch, J{\'o} {\'A}gila and Jonas, Stephan M.}
}
@article {1267,
	title = {Mapping for Health in Cameroon: Polio Legacy and Beyond.},
	journal = {J Infect Dis},
	volume = {216},
	year = {2017},
	month = {2017 07 01},
	pages = {S337-S342},
	abstract = {<p>During the poliovirus outbreak in Cameroon from October 2013 to April 2015, the Ministry of Public Health{\textquoteright}s Expanded Program on Immunization requested technical support to improve mapping of health district boundaries and health facility locations for more effective planning and analysis of polio program data. In December 2015, teams collected data on settlements, health facilities, and other features using smartphones. These data, combined with high-resolution satellite imagery, were used to create new health area and health district boundaries, providing the most accurate health sector administrative boundaries to date for Cameroon. The new maps are useful to and used by the polio program as well as other public health programs within Cameroon such as the District Health Information System and the Emergency Operations Center, demonstrating the value of the Global Polio Eradication Initiative{\textquoteright}s legacy.</p>},
	keywords = {Cameroon, Geographic Information Systems, Humans, Immunization Programs, Poliomyelitis, Public Health, Public Health Surveillance, Smartphone},
	issn = {1537-6613},
	doi = {10.1093/infdis/jix008},
	author = {Rosencrans, Louie C and Sume, Gerald E and Kouontchou, Jean-Christian and Voorman, Arend and Anokwa, Yaw and Fezeu, Maurice and Seaman, Vincent Y}
}
