Intratumoral infusion of fluid: estimation of hydraulic conductivity and implications for the delivery of therapeutic agents

被引:80
作者
Boucher, Y [1 ]
Brekken, C
Netti, PA
Baxter, LT
Jain, RK
机构
[1] Massachusetts Gen Hosp, Dept Radiat Oncol, Steele Lab, Boston, MA 02114 USA
[2] Harvard Univ, Sch Med, Boston, MA 02114 USA
关键词
human tumour xenografts; intratumoral fluid infusion; hydraulic conductivity; compliance; interstitial fluid pressure;
D O I
10.1038/bjc.1998.705
中图分类号
R73 [肿瘤学];
学科分类号
100214 ;
摘要
We have developed a new technique to measure in vivo tumour tissue fluid transport parameters (hydraulic conductivity and compliance) that influence the systemic and intratumoral delivery of therapeutic agents. An infusion needle approximating a point source was constructed to produce a radially symmetrical fluid source in the centre of human tumours in immunodeficient mice. At constant flow, the pressure gradient generated in the tumour by the infusion of fluid (Evans blue-albumin in saline) was measured asa function of the radial position with micropipettes connected to a servo-null system. To evaluate whether the fluid infused was reabsorbed by blood vessels. infusions were also performed after circulatory arrest. In the colon adenocarcinoma LS174T with a spherically symmetrical distribution of Evans blue-albumin, the median hydraulic conductivity in vivo and after circulatory arrest at a flow rate of 0.1 mu l min(-1) was, respectively, 1.7x10(-7) and 2.3x10(-7) cm(2) mmHg(-1) s. Compliance estimates were 35 mu l mmHg(-1) in vivo, and 100 mu l mmHg(-1) after circulatory arrest. In the sarcoma HSTS 26T, hydraulic conductivity and compliance were not calculated because of the asymmetric distribution of the fluid infused. The technique will be helpful in identifying strategies to improve the intratumoral and systemic delivery of gene targeting vectors and other therapeutic agents.
引用
收藏
页码:1442 / 1448
页数:7
相关论文
共 32 条
[1]   INTERSTITIAL PRESSURE, VOLUME, AND FLOW DURING INFUSION INTO BRAIN-TISSUE [J].
BASSER, PJ .
MICROVASCULAR RESEARCH, 1992, 44 (02) :143-165
[2]   TRANSPORT OF FLUID AND MACROMOLECULES IN TUMORS .1. ROLE OF INTERSTITIAL PRESSURE AND CONVECTION [J].
BAXTER, LT ;
JAIN, RK .
MICROVASCULAR RESEARCH, 1989, 37 (01) :77-104
[3]   CONVECTION-ENHANCED DELIVERY OF MACROMOLECULES IN THE BRAIN [J].
BOBO, RH ;
LASKE, DW ;
AKBASAK, A ;
MORRISON, PF ;
DEDRICK, RL ;
OLDFIELD, EH .
PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA, 1994, 91 (06) :2076-2080
[4]  
BOUCHER Y, 1990, CANCER RES, V50, P4478
[5]  
BOUCHER Y, 1992, CANCER RES, V52, P5110
[6]  
DAY TD, 1952, J PHYSIOL-LONDON, V117, P1
[7]   CHARACTERIZATION OF NEUROBLASTOMA XENOGRAFT IN RAT FLANK .1. GROWTH, INTERSTITIAL FLUID PRESSURE, AND INTERSTITIAL FLUID VELOCITY DISTRIBUTION PROFILES [J].
DIRESTA, GR ;
LEE, JB ;
LARSON, SM ;
ARBIT, E .
MICROVASCULAR RESEARCH, 1993, 46 (02) :158-177
[8]   DYNAMICS OF WATER TRANSPORT IN CORNEAL STROMA [J].
FATT, I .
EXPERIMENTAL EYE RESEARCH, 1968, 7 (03) :402-&
[9]   PERIALVEOLAR INTERSTITIAL RESISTANCE AND COMPLIANCE IN ISOLATED RAT LUNG [J].
FORD, TR ;
SACHS, JR ;
GROTBERG, JB ;
GLUCKSBERG, MR .
JOURNAL OF APPLIED PHYSIOLOGY, 1991, 70 (06) :2750-2756
[10]   INTERSTITIAL FLUID PRESSURE .3. ITS EFFECT ON RESISTANCE TO TISSUE FLUID MOBILITY [J].
GUYTON, AC ;
SCHEEL, K ;
MURPHREE, D .
CIRCULATION RESEARCH, 1966, 19 (02) :412-&