Taurine analogues; A new class of therapeutics: Retrospect and prospects

被引:74
作者
Gupta, RC [1 ]
Win, T
Bittner, S
机构
[1] Nagaland Univ, SASRD, Medziphema 797106, India
[2] Univ Mandalay, Dept Chem, Mandalay, Myanmar
[3] Ben Gurion Univ Negev, Dept Chem, Beer Sheva, Israel
关键词
D O I
10.2174/0929867054546582
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
Taurine was discovered more than two hundred years ago from animal sources. It is distributed in both mammals and non-mammals and its content is high in several tissues. For more than a century-and-a-half, taurine was regarded just as an end product of sulfur metabolism. Recently, taurine has been rediscovered and its beneficial effects in processes like epilepsy, hypertension, congestive heart failure and diabetes have been well-documented. It was patented and found some clinical utility, but being an amino acid, therapeutic use confronts limitations like restricted permeability and more. This necessitates the development of pro-drugs (analogues) mainly derivatives of taurine. A large number of taurine derivatives have been reported in the literature with partial to marked activity, Taurine derivatives like taltrimide, acamprosate and tauromustine, are already in the market as anti-convulsant, anti-alcoholic and anti-cancer agents. Many other analogues are effective in experimental models. The in depth analysis of these analogues and their biological actions can provide certain clues for further consideration. In the present review, attempts have been made to provide synopsis, synthesis and symbiosis of chemical and biological actions, which may provide future guidance and facilitate further research in this area. The successful journey of these analogues to clinical utility is a healthy and happy sign and an index of bright future, and we hope that this review will provide enough input to ignite the minds.
引用
收藏
页码:2021 / 2039
页数:19
相关论文
共 172 条
[1]   Taurine and taurine-deficiency in the perinatal period [J].
Aerts, L ;
Van Assche, FA .
JOURNAL OF PERINATAL MEDICINE, 2002, 30 (04) :281-286
[2]   Low taurine, gamma-aminobutyric acid and carnosine levels in plasma of diabetic pregnant rats: consequences for the offspring [J].
Aerts, L ;
Van Assche, FA .
JOURNAL OF PERINATAL MEDICINE, 2001, 29 (01) :81-84
[3]   COMPARISON OF CENTRAL NERVOUS-SYSTEM ACTIONS OF TAURINE AND N-PIVALOYLTAURINE [J].
AHTEE, L ;
AUVINEN, H ;
MAENPAA, AR ;
VAHALA, ML ;
LEHTINEN, M ;
HALMEKOSKI, J .
ACTA PHARMACOLOGICA ET TOXICOLOGICA, 1985, 57 (02) :96-105
[4]   SYNTHESIS AND ANTICONVULSANT PROPERTIES OF SOME 2-AMINOETHANESULFONIC ACID (TAURINE) DERIVATIVES [J].
ANDERSEN, L ;
SUNDMAN, LO ;
LINDEN, IB ;
KONTRO, P ;
OJA, SS .
JOURNAL OF PHARMACEUTICAL SCIENCES, 1984, 73 (01) :106-108
[5]   EFFECT OF TAURINE ON ETHANOL-INDUCED CHANGES IN OPEN-FIELD LOCOMOTOR-ACTIVITY [J].
ARAGON, CMG ;
TRUDEAU, LE ;
AMIT, Z .
PSYCHOPHARMACOLOGY, 1992, 107 (2-3) :337-340
[6]   INVITRO OSMOREGULATION OF TAURINE IN FETAL MOUSE HEARTS [J].
ATLAS, M ;
BAHL, JJ ;
ROESKE, W ;
BRESSLER, R .
JOURNAL OF MOLECULAR AND CELLULAR CARDIOLOGY, 1984, 16 (04) :311-320
[7]   THERAPEUTIC EFFECT OF TAURINE IN CONGESTIVE HEART-FAILURE - A DOUBLE-BLIND CROSSOVER TRIAL [J].
AZUMA, J ;
SAWAMURA, A ;
AWATA, N ;
OHTA, H ;
HAMAGUCHI, T ;
HARADA, H ;
TAKIHARA, K ;
HASEGAWA, H ;
YAMAGAMI, T ;
ISHIYAMA, T ;
IWATA, H ;
KISHIMOTO, S .
CLINICAL CARDIOLOGY, 1985, 8 (05) :276-282
[8]  
AZUMA J, 1983, CLIN THER, V5, P398
[9]   NEUROPHARMACOLOGY OF TAURINE [J].
BARBEAU, A ;
INOUE, N ;
TSUKADA, Y ;
BUTTERWORTH, RF .
LIFE SCIENCES, 1975, 17 (05) :669-678
[10]   ZINC, TAURINE, AND EPILEPSY [J].
BARBEAU, A ;
DONALDSON, J .
ARCHIVES OF NEUROLOGY, 1974, 30 (01) :52-58