
pmid: 17947149
Measurement of oxygen saturation levels in blood is a vital activity during most medical treatments. A pulse oximeter is a device most commonly used to perform this measurement. It provides convenient, non-invasive and continuous monitoring of oxygen levels in a human body. However, it is often a tedious task to select the appropriate hardware and software components to manufacture a pulse oximeter that gives accurate results. This paper describes a student project, which had the goals to expose the student to this important technique of applying rapid prototyping methods to the design of a state of the art pulse oximeter.
Light, Reproducibility of Results, Equipment Design, Models, Theoretical, Oxygen, Microcomputers, Humans, Computer Simulation, Oximetry, Blood Gas Monitoring, Transcutaneous, Software, Monitoring, Physiologic
Light, Reproducibility of Results, Equipment Design, Models, Theoretical, Oxygen, Microcomputers, Humans, Computer Simulation, Oximetry, Blood Gas Monitoring, Transcutaneous, Software, Monitoring, Physiologic
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