TY - GEN
T1 - A simulation of ventilator performance testing for ventilation waveform understanding
AU - Sanpanich, A.
AU - Techaikool, P.
AU - Kajornpredanon, Y.
AU - Sroykham, W.
AU - Petsarb, K.
AU - Phairoh, C.
AU - Angkhananuwat, W.
N1 - Publisher Copyright:
© 2019 IEEE.
PY - 2019/11
Y1 - 2019/11
N2 - Artificial ventilation by using an automatic ventilator is a standard treatment for a patient who has an abnormality in his respiratory system or his own spontaneous breathing is not enough to maintain an oxygenation in a safety level. It functions to supply an amount of airflow into the lungs during an inspiration and remove air out from the lungs during an expiration phase. Ventilator itself is quite complicated in parameter setting, using or even though understanding all display ventilation waveform. Beginner always need a lot of time to practice and familiar with this sophisticated equipment especially in ICU ward. In this paper, we present a simplified ventilator model by using an effective simulation tools in order to use as a simple tool in a routine ventilation parameter study. Ventilator input parameters of volume control ventilation mode (VCV) with pause time setting are the main input setting of our model. We also intend to focus on lung compliance and an airway resistance setting in our test lung module in order to test and verify the performance of our ventilator model in case of patient pathology change to better or worse (0.5C, 2R) which commonly found in ICU patient. As a preliminary, all main ventilation waveforms (Paw, VT, dot V) obtain from this modified model show an effective response to any variation in compliance and resistance and able to use as a routine practice for new practitioner. For further study, another basic ventilation mode and setting as PCV, IMV, PEEP even patient triggering setting will be added in the future.
AB - Artificial ventilation by using an automatic ventilator is a standard treatment for a patient who has an abnormality in his respiratory system or his own spontaneous breathing is not enough to maintain an oxygenation in a safety level. It functions to supply an amount of airflow into the lungs during an inspiration and remove air out from the lungs during an expiration phase. Ventilator itself is quite complicated in parameter setting, using or even though understanding all display ventilation waveform. Beginner always need a lot of time to practice and familiar with this sophisticated equipment especially in ICU ward. In this paper, we present a simplified ventilator model by using an effective simulation tools in order to use as a simple tool in a routine ventilation parameter study. Ventilator input parameters of volume control ventilation mode (VCV) with pause time setting are the main input setting of our model. We also intend to focus on lung compliance and an airway resistance setting in our test lung module in order to test and verify the performance of our ventilator model in case of patient pathology change to better or worse (0.5C, 2R) which commonly found in ICU patient. As a preliminary, all main ventilation waveforms (Paw, VT, dot V) obtain from this modified model show an effective response to any variation in compliance and resistance and able to use as a routine practice for new practitioner. For further study, another basic ventilation mode and setting as PCV, IMV, PEEP even patient triggering setting will be added in the future.
KW - ICU ventilator simulation
KW - artificial ventilation training
KW - ventilation parameter waveform study
KW - ventilator performance testing
UR - https://www.scopus.com/pages/publications/85080026676
U2 - 10.1109/BMEiCON47515.2019.8990278
DO - 10.1109/BMEiCON47515.2019.8990278
M3 - Conference contribution
AN - SCOPUS:85080026676
T3 - BMEiCON 2019 - 12th Biomedical Engineering International Conference
BT - BMEiCON 2019 - 12th Biomedical Engineering International Conference
PB - Institute of Electrical and Electronics Engineers Inc.
T2 - 12th Biomedical Engineering International Conference, BMEiCON 2019
Y2 - 19 November 2019 through 22 November 2019
ER -