Evolution of surface activity related functions of vertebrate pulmonary surfactant

被引:47
作者
Daniels, CB [1 ]
Lopatko, OV [1 ]
Orgeig, S [1 ]
机构
[1] Univ Adelaide, Dept Physiol, Adelaide, SA 5005, Australia
关键词
anti-glue; evolution; lipids; lungs; lung compliance; lung fluid balance; pulmonary surfactant; surface activity; surface tension; temperature; vertebrates;
D O I
10.1111/j.1440-1681.1998.tb02283.x
中图分类号
R9 [药学];
学科分类号
1007 ;
摘要
1. Pulmonary surfactant is a mixture of lipids and proteins that Lines the air-liquid interface of the lungs of all vertebrates. In mammals, it functions to reduce and vary surface tension, which helps to decrease the work of breathing, provide alveolar stability and prevent alveolar oedema, The present review examines the evolution and relative importance of these surface activity related functions in the lungs of vertebrates. 2. The surface activity of surfactant from fish, amphibians, birds and most reptiles is generally very low correlating with a low body temperature and a low disaturated phospholipid content of their surfactant, In contrast, the surfactant of those reptiles with a higher preferred body temperature, as well as that of birds and mammals, has a much higher surface activity. 3, The two main functions of surfactant in mammals are to provide alveolar stability and to increase compliance of the relatively stiff bronchoalveolar lung. As the respiratory units of most non-mammalian vertebrates are up to 1000-fold larger and up to 100-fold more compliant, surfactant is not required for these functions. 4, In non-mammals, surfactant appears to act as an anti-glue preventing the adhesion of respiratory surfaces that may occur when the lungs collapse (e,g, during diving, swallowing of prey or on expiration). Surfactant also controls lung fluid balance. These functions can be fulfilled by a surfactant with relatively low surface activity and may represent the primitive functions of surface active material in vertebrate lungs.
引用
收藏
页码:716 / 721
页数:6
相关论文
共 40 条
[1]  
[Anonymous], Z GES EXP MED
[2]   PRESSURE-VOLUME CURVES OF AIR-FILLED AND LIQUID-FILLED EXCISED LUNGS-SURFACE TENSION IN-SITU [J].
BACHOFEN, H ;
HILDERBR.J ;
BACHOFEN, M .
JOURNAL OF APPLIED PHYSIOLOGY, 1970, 29 (04) :422-&
[3]   RELATIONS AMONG ALVEOLAR SURFACE-TENSION, SURFACE-AREA, VOLUME, AND RECOIL PRESSURE [J].
BACHOFEN, H ;
SCHURCH, S ;
URBINELLI, M ;
WEIBEL, ER .
JOURNAL OF APPLIED PHYSIOLOGY, 1987, 62 (05) :1878-1887
[4]   ALVEOLAR LINING LAYER IS THIN AND CONTINUOUS - LOW-TEMPERATURE SCANNING ELECTRON-MICROSCOPY OF RAT LUNG [J].
BASTACKY, J ;
LEE, CYC ;
GOERKE, J ;
KOUSHAFAR, H ;
YAGER, D ;
KENAGA, L ;
SPEED, TP ;
CHEN, Y ;
CLEMENTS, JA .
JOURNAL OF APPLIED PHYSIOLOGY, 1995, 79 (05) :1615-1628
[5]  
BISHOP IR, 1968, J ZOOL, V154, P263
[6]   PULMONARY BLOOD-PLASMA FILTRATION IN REPTILES - A WET VERTEBRATE LUNG [J].
BURGGREN, WW .
SCIENCE, 1982, 215 (4528) :77-78
[7]   PULMONARY SURFACE TENSION AND ALVEOLAR STABILITY [J].
CLEMENTS, JA ;
GRIBETZ, I ;
JOHNSON, RP ;
HUSTEAD, RF .
JOURNAL OF APPLIED PHYSIOLOGY, 1961, 16 (03) :444-&
[8]   THE EVOLUTION OF THE VERTEBRATE PULMONARY SURFACTANT SYSTEM [J].
DANIELS, CB ;
ORGEIG, S ;
SMITS, AW .
PHYSIOLOGICAL ZOOLOGY, 1995, 68 (04) :539-566
[9]   THE ROLE OF SURFACTANT IN THE STATIC LUNG-MECHANICS OF THE LIZARD CTENOPHORUS-NUCHALIS [J].
DANIELS, CB ;
ESKANDARIMARANDI, BD ;
NICHOLAS, TE .
RESPIRATION PHYSIOLOGY, 1993, 94 (01) :11-23
[10]   The influence of temperature, phylogeny, and lung structure on the lipid composition of reptilian pulmonary surfactant [J].
Daniels, CB ;
Orgeig, S ;
Smits, AW ;
Miller, JD .
EXPERIMENTAL LUNG RESEARCH, 1996, 22 (03) :267-281