In developing countries airborne micro-organisms are one of the most common causes of surgical wound infection. In the operating room low-turbulence displacement-flow has been shown to reduce the influence of airborne bacteria. However, due to complexity and cost, current systems are not accessible to all potential users. In this paper a low-cost ventilation system is presented that provides low-turbulence displacement-flow over a surgical operating environment. A stand-alone, simple to assemble, mobile airflow system was developed using the principle of speed compensation for laminar airflow. From visual inspection and measurements, the system was seen to generate a continuous downwards displacement of air over the protected area around the situs. The entire system can be assembled quickly with minimal standard tools, making it very suitable for mobile use, such as in disaster areas. Future work is required to achieve the vertical dimension of a laminar flow field required by the DIN 1946-4. Overall, the low-cost and simple system could provide many potential users access to the technology and thus improving hygiene conditions in their operating environment.
%0 Journal Article
%1 noauthororeditor
%A Heinz, Julia
%A Schäfer, Max B.
%A Stewart, Kent W.
%A Pott, Peter P.
%D 2019
%J Current Directions in Biomedical Engineering
%K OR displacement-flow imt institut-für-medizingerätetechnik low-turbulence medizingerätetechnik myown operating-environment operating-room operating-theatre
%N 1
%P 509-512
%R 10.1515/cdbme-2019-0128
%T Low-turbulence displacement-flow for an operating environment
%U https://www.degruyter.com/view/j/cdbme.2019.5.issue-1/cdbme-2019-0128/cdbme-2019-0128.xml?lang=de
%V 5
%X In developing countries airborne micro-organisms are one of the most common causes of surgical wound infection. In the operating room low-turbulence displacement-flow has been shown to reduce the influence of airborne bacteria. However, due to complexity and cost, current systems are not accessible to all potential users. In this paper a low-cost ventilation system is presented that provides low-turbulence displacement-flow over a surgical operating environment. A stand-alone, simple to assemble, mobile airflow system was developed using the principle of speed compensation for laminar airflow. From visual inspection and measurements, the system was seen to generate a continuous downwards displacement of air over the protected area around the situs. The entire system can be assembled quickly with minimal standard tools, making it very suitable for mobile use, such as in disaster areas. Future work is required to achieve the vertical dimension of a laminar flow field required by the DIN 1946-4. Overall, the low-cost and simple system could provide many potential users access to the technology and thus improving hygiene conditions in their operating environment.
@article{noauthororeditor,
abstract = {In developing countries airborne micro-organisms are one of the most common causes of surgical wound infection. In the operating room low-turbulence displacement-flow has been shown to reduce the influence of airborne bacteria. However, due to complexity and cost, current systems are not accessible to all potential users. In this paper a low-cost ventilation system is presented that provides low-turbulence displacement-flow over a surgical operating environment. A stand-alone, simple to assemble, mobile airflow system was developed using the principle of speed compensation for laminar airflow. From visual inspection and measurements, the system was seen to generate a continuous downwards displacement of air over the protected area around the situs. The entire system can be assembled quickly with minimal standard tools, making it very suitable for mobile use, such as in disaster areas. Future work is required to achieve the vertical dimension of a laminar flow field required by the DIN 1946-4. Overall, the low-cost and simple system could provide many potential users access to the technology and thus improving hygiene conditions in their operating environment.},
added-at = {2019-10-01T15:37:47.000+0200},
author = {Heinz, Julia and Schäfer, Max B. and Stewart, Kent W. and Pott, Peter P.},
biburl = {https://puma.ub.uni-stuttgart.de/bibtex/2c33545291e100ab61c4b0ce3082ea966/maxschaefer},
doi = {10.1515/cdbme-2019-0128},
interhash = {0dcad8ad8f1223571cb5c9dd84c61f26},
intrahash = {c33545291e100ab61c4b0ce3082ea966},
journal = {Current Directions in Biomedical Engineering},
keywords = {OR displacement-flow imt institut-für-medizingerätetechnik low-turbulence medizingerätetechnik myown operating-environment operating-room operating-theatre},
number = 1,
pages = {509-512},
timestamp = {2020-09-18T16:27:20.000+0200},
title = {Low-turbulence displacement-flow for an operating environment},
url = {https://www.degruyter.com/view/j/cdbme.2019.5.issue-1/cdbme-2019-0128/cdbme-2019-0128.xml?lang=de},
volume = 5,
year = 2019
}