æ¬ç¼æä¿éæ¼å»èæ®æ±çé¹½é¡ï¼ç¹å¥æ¯ä¸å ·å¢é²æ§è½çå»èæ®æ±ç¡«é ¸é¹½ï¼æ´ç¹å¥çºå»èæ®æ±å®æ°´åç¡«é ¸é¹½ãæ¬ç¼å乿ä¾äºä½¿ç¨å»èæ®æ±ç¡«é ¸é¹½æ¼å£æé«è¥çµåç©çæ¹æ³ï¼ä»¥å使ç¨å»èæ®æ±ç¡«é ¸é¹½æ²»ççç¸éæ¹æ³ãThe present invention relates to salts of tianeptine, in particular a tianeptine sulphate having improved properties, more particularly tianeptine monohydrate hemisulfate. This publication also provides methods for the use of tianeptine sulfate in oral pharmaceutical compositions, as well as related methods of treatment with tianeptine sulfate.
å»èæ®æ±æ¯ä¸ç°é¡ååç©ï¼å ¶åå¸å稱çº7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[c,f][1,2]ç¡«æ°®éå-11-åº)æ°¨åº]åºé ¸ï¼S,S-äºæ°§åç©ãå»èæ®æ±æ¯ææé¬±è¥ç©ãå»èæ®æ±çèªç±æ çºå ©æ§çï¼ä¸¦æ¼æè¡é å䏿ä¸å·²ç¥çéçµæ¶åéé¹½ãThiapeptin is a tricyclic compound with the chemical name 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine -11-yl)amino]heptanoic acid, S,S-dioxide. Xirapaptine is an antidepressant drug. The free state of tianeptine is amphoteric and there is a known amorphous sodium salt in the technical field.
ç¾åå°å©ç¬¬3758528èæé²äºåæå»èæ®æ±åå ¶éé¹½çæ¹æ³ãå»èæ®æ±é(å³STABLONãCoaxilæTatinol)è¿ä¾å·²æ¼ä¸äºåå®¶å¦ææ´²ï¼æä¸ç¾æ´²ï¼äºæ´²åé¨å䏿±è¢«æ ¸åä½¿ç¨æ¼æ²»çä¸åæå¤ç¨®æé¬±çãå»èæ®æ±é(å³STABLONãCoaxilæTatinol)æè¢«è¿ éä¸å®å ¨å°å¸æ¶ï¼ä¸¦æä¸åå¾çççµç«¯åè¡°æï¼æ ææçæ²»çå¾å¾éè¦æ¼ä¸å¤©å §å¤æ¬¡çµ¦è¥ãA method of synthesizing tianeptine and its sodium salt is disclosed in U.S. Patent No. 3,758,528. Sennalpeptin sodium (STABLON) Coaxil Or Tatinol Recently, it has been approved for the treatment of one or more depressions in some countries such as Europe, Latin America, Asia and parts of the Middle East. Sennalpeptin sodium (STABLON) Coaxil Or Tatinol ) will be absorbed quickly and completely, and has a short terminal half-life, so effective treatment often requires multiple doses within one day.
ç®åï¼å»èæ®æ±éé¹½çé«è¥çµåç©ä¸è¬å£æåéé«éæ¯å¤©3次ã鿍£é »ç¹ç壿å¯è½å°è´éµå®å»ºè°ç¨è¥éçé ææ§éä½ã䏿§éçå»èæ®æ±é«è¥çµåç©æè½ææ´å¥½çæ§å¶éæ¾æ²ç·ï¼å æ¤è½æè¼ä½ç建è°ç¨è¥éãæ¤ç¨®å»èæ®æ±ç¡«é ¸é¹½ä¹åªé»å¨æ¼å ¶å¯ç¨æ¼è£½åæ§å¶éæ¾å«æå»èæ®æ±çé«è¥çµåç©ãCurrently, pharmaceutical compositions of tianeptine sodium salt are generally administered orally in an oral dose up to three times a day. Such frequent oral administration may result in reduced compliance with the recommended dosage. A controlled release tianeptine pharmaceutical composition should have a better controlled release profile and therefore a lower recommended dosage. An advantage of such tianeptine sulfate is that it can be used to prepare a controlled release pharmaceutical composition containing tianeptine.
æ¬ç¼æä¿éæ¼ä¸ç¨®æ°ç©çå»èæ®æ±ç¡«é ¸é¹½ï¼ç¹å¥æ¯å ·æ¹é²æè½çå»èæ®æ±å®æ°´åç¡«é ¸é¹½ãæ¤ç¨®æ¹é²çæè½å¯å å«ä½ä¸éæ¼å¸æ¿æ§ï¼ç©çç©©å®æ§åæº¶è§£åº¦ãæ¬ç¼æä¹æä¾äºå«æå»èæ®æ±ç¡«é ¸é¹½ä¹æ°ç©é«è¥çµåç©ã製åå»èæ®æ±ç¡«é ¸é¹½çæ¹æ³ä»¥åç¸éçæ²»çæ¹æ³ãèä¾ä¾èªªï¼å»èæ®æ±å®æ°´åç¡«é ¸é¹½æä¾äºç¾ä»å¸å®é«è¥çµåç©åå(å»èæ®æ±é)çä¸ç¨®æ¿ä»£é¸æãThis invention relates to a novel tianeptine sulfate, particularly tianeptine monohydrate hemisulfate having improved performance. Such improved performance can include, but is not limited to, hygroscopicity, physical stability, and solubility. The present invention also provides novel pharmaceutical compositions containing tianeptine sulfate, methods of preparing tianeptine sulfate, and related methods of treatment. For example, tianeptine monohydrate hemisulfate provides an alternative to the commercially available pharmaceutical composition dosage form (tianapeptin sodium).
å»èæ®æ±çèªç±æ å ·æä»¥ä¸çµæ§(I)ï¼The free state of tianeptine has the following structure (I):
å»èæ®æ±ç¡«é ¸é¹½å¯ç¨æ¼é«è¥çµåç©ä¸ä¾æ²»çæè¡é åä¸ç¿ç¥çç å¾µï¼å¦ä¸æå¤ç¨®çæé¬±çãè ¸èºç(IBS)ãæ³¨æå缺é·éåç(ADHD)ï¼ä¸æå¤ç¨®çç¥ç¶éåç¾ç 以åå®åãThe tianeptine sulphate can be used in pharmaceutical compositions to treat conditions well known in the art, such as one or more of depression, intestinal tract (IBS), attention deficit hyperactivity disorder (ADHD), one or more Neurodegenerative diseases and asthma.
æ¬ç¼æçä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼æä¾äº7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[c,f][1,2]ç¡«æ°®éå-11-åº)æ°¨åº]åºé ¸ï¼S,S-äºæ°§åç©å®æ°´åç¡«é ¸é¹½ï¼è¡¨ç¾å¦ä¸å¼(II)ï¼In some embodiments of the invention, 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine-11- Amino]heptanoic acid, S,S-dioxide monohydrate hemisulfate, which behaved as follows (II):
è卿¬ç¼æçå ¶ä»ä¸äºå ·é«å¯¦æ½ä¾ï¼æä¾çµæ¶ç7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[c,f][1,2]ç¡«æ°®éå-11-åº)æ°¨åº]åºé ¸ï¼S,S-äºæ°§åç©å®æ°´åç¡«é ¸é¹½ï¼å ¶ç¹å¾µçºç²æ«Xå°ç·ç¹å°åä¸ï¼å¨2-Î¸å æ¬æèç´8.97ï¼ç´11.49ï¼ç´14.73ï¼ç´20.59ï¼ç´22.83åç´23.27åº¦çæ³¢å³°ãIn still other embodiments of the invention, crystalline 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine is provided. -11-yl)amino]heptanoic acid, S,S-dioxide monohydrate hemisulfate, characterized by a powder X-ray diffraction pattern comprising about 8.97, about 11.49, about 14.73, in 2-theta. 20.59, about 22.83 and a peak of about 23.27 degrees.
æ¬ç¼æä¹å ¶ä»ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼æä¾äºä¸ç¨®è£½åå¼(II)ç7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[c,f][1,2]ç¡«æ°®éå-11-åº)æ°¨åº]åºé ¸ï¼S,S-äºæ°§åç©å®æ°´åç¡«é ¸é¹½çæ¹æ³ï¼å æ¬æ¥é©ï¼(a)溶解7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[cï¼f][1ï¼2]ç¡«æ°®éå-11-åº)æ°¨åº]åºé ¸ï¼S,S-äºæ°§åç©æå ¶éé¹½æ¼æ°´åéé ¸çæ··åç©ä¸ï¼å å ¥ä¸æº¶åå®ç¨çºæ°´æçµåäºéé ¸çç¡«é ¸æº¶æ¶²æ¼æ¥é©(a)ä¹åææ··åç©ï¼å(c)çµæ¶åºå¼(II)çååç©ãIn other specific embodiments of the invention, there is provided a 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2) formula (II) a method for the preparation of sulphur azepine-11-yl)amino]heptanoic acid, S,S-dioxide monohydrate hemisulfate, comprising the steps of: (a) dissolving 7-[(3-chloro-6,11-di) a mixture of hydrogen-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amino]heptanoic acid, S,S-dioxide or its sodium salt in water and acetic acid Adding a solvent to the reaction mixture of step (a) in water alone or in combination with acetic acid in sulfuric acid, and (c) crystallizing the compound of formula (II).
卿¬ç¼æçå¦ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼æä¾äºä¸ç¨®æ§å¶éæ¾çåºè³ªé åï¼å ¶å å«äºä¸é«è¥ä¸ææéç7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[cï¼f][1ï¼2]ç¡«æ°®éå-11-åº)æ°¨åº]åºé ¸ï¼S,S-äºæ°§åç©å®æ°´åç¡«é ¸é¹½ï¼å䏿å¤ç¨®æ§éçèåç©ï¼å ¶ä¸æ¤é åæ¼æ½èç äººå£ææï¼å¯æä¾å¹³åæé«è¡æ¼¿æ¿åº¦(Cmax )ç7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[cï¼f][1ï¼2]ç¡«æ°®éå-11-åº)æ°¨åº]åºé ¸ï¼S,S-äºæ°§åç©ç´ç±100ng/mlè³150ng/mlãIn still other embodiments of the present invention, there is provided a controlled release matrix lozenge comprising a pharmaceutically effective amount of 7-[(3-chloro-6,11-dihydro-6-methyldi Benzo[c,f][1,2]thiazepine-11-yl)amino]heptanoic acid, S,S-dioxide monohydrate hemisulfate, and one or more controlled release polymers, wherein This tablet provides the highest average plasma concentration (C max ) of 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1] when administered orally to a patient. 2]thiazepine-11-yl)amino]heptanoic acid, S,S-dioxide is from about 100 ng/ml to 150 ng/ml.
çºäºæ´å¥½å°äºè§£æ¬ç¼æï¼é£åå ¶ä»åé²ä¸æ¥å ·é«å¯¦æ½ä¾ï¼ä¸¦ä¼´æåå¼åç¼æè©³ç´°èªªæåçºåèãFor a better understanding of the present invention, reference should be made to the accompanying drawings.
æ¬ç¼æä¿ç¸éä¸ç¨®æ°ç©çå»èæ®æ±ç¡«é ¸é¹½ï¼æ´ç¹å¥æ¯å»èæ®æ±å®æ°´åç¡«é ¸é¹½ãç¸è¼æ¼ä¸ç¨®æå¤ç¨®å·²ç¥çå»èæ®æ±åå¼ï¼å¦å»èæ®æ±èªç±é¹¼æå»èæ®æ±é(ç¶åæä½¿ç¨çå»èæ®æ±åå¼)ï¼å»èæ®æ±ç¡«é ¸é¹½æå¢é²çåæãæ¤ç¡«é ¸é¹½å¯åæå¤ç¨®å½¢å¼ï¼å ¶å æ¬ä½ä¸éæ¼æ°´åç©ã溶ååç©ä»¥åå種ä¸ååå¸ç¶éæ¯çé¢åå»èæ®æ±çç¡«é ¸é¹½ç¸å°é¢åãæ¬ç¼æéå æ¬å ¶ä»å½¢å¼çå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶å æ¬ä¸éæ¼å¤å½¢é«ï¼å ±æ¶é«åç¡å®å½¢é«ãæ¬ç¼æéæä¾äºå å«éäºå½¢å¼ä¹æ°ç©é«è¥çµåç©å製åå ¶ä¹æ¹æ³ä»¥åç¸éæ²»çæ¹æ³ãThe present invention relates to a novel tianeptine sulfate, more particularly tianeptine monohydrate hemisulfate. Compared with one or more known tianeptine types, such as tianeptine free base or tianeptine sodium (currently used tianeptine type), tianeptine sulfate has improved efficacy . The sulfate can be formed in a variety of forms including, but not limited to, hydrates, solvates, and sulfate counterions of ionic tianeptine in various stoichiometric ratios. The invention also includes other forms of tianeptine sulfate, including but not limited to polymorphs, co-crystals, and amorphous bodies. The invention also provides novel pharmaceutical compositions comprising these forms, methods of making the same, and related methods of treatment.
æææ¼æ¤æå°çãå»èæ®æ±ç¡«é ¸é¹½ãç¹å¥ææå»èæ®æ±å®æ°´åç¡«é ¸é¹½ãAll of the "tianapeptine sulfate" mentioned herein specifically means tianeptine monohydrate hemisulfate.
æ¬ç¼æç鹽顿¯ä¸ç¨®å»èæ®æ±ç¡«é ¸é¹½ãå»èæ®æ±èªç±é¹¼å ·æä»¥ä¸çµæ§(I)ï¼The salt of the present invention is a tianeptine sulfate. The tianeptine free base has the following structure (I):
å¨ç¬¬ä¸åå ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±ç¡«é ¸é¹½ãIn a first embodiment, the invention includes tianeptine sulfate.
å¨é²ä¸æ¥çå ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç¡«é ¸é¹½å¯ç´å ¥é«è¥çµåç©ãå¨å ¶ä»çå ·é«å¯¦æ½ä¾ï¼å»èæ®æ±ç¡«é ¸é¹½å¯ç´å ¥æ§å¶éæ¾çé«è¥ç©çµåç©ãIn a further embodiment, the tianeptine sulfate can be incorporated into a pharmaceutical composition. In other embodiments, tianeptine sulfate can be incorporated into a controlled release pharmaceutical composition.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼å»èæ®æ±ç¡«é ¸é¹½å¯ç´å ¥å å«ä¸å±¤æå¤å±¤å»èæ®æ±ç¡«é ¸é¹½çé«è¥ç©çµåç©ï¼é樣å¨é«å §ï¼ä¸å±¤å¯æ¼å¦ä¸å±¤å¤§ééæ¾åå è¡éæ¾ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼å»èæ®æ±ç¡«é ¸é¹½å¯ç´å ¥å«æé¡ç²çè¥ç©çµåç©ï¼å ¶ä¸çé¡ç²å¯æä¸åçç¯åæå叿åçå¡å±¤ï¼ä½¿å»èæ®æ±çéæ¾æéå¯å¤§å¹ 度çé·æ¼ç¶åå¯ä½¿ç¨çå»èæ®æ±(ä¾å¦STABLONãCoaxilæTatinol)ãIn another embodiment, the tianeptine sulfate can be incorporated into a pharmaceutical composition comprising one or more layers of tianeptine sulfate such that in vivo, one layer can be released prior to bulk release in another layer. In another embodiment, the tianeptine sulfate can be incorporated into a pharmaceutical composition comprising granules, wherein the granules can have coatings of different ranges or chemical compositions, such that the release time of tianeptine can be substantially increased. Longer than currently available tianeptine (eg STABLON) Coaxil Or Tatinol ).
å¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼å»èæ®æ±ç¡«é ¸é¹½å¯ä»¥ç´å ¥ä¸åé©åå£æçæ»²éæ§æ´»æ§è¥ç©çµåç©ãé©åå£æçæ»²éæ§æ´»æ§è¥ç©çµåç©ãæ»²éæ³µã滲é給è¥åå ¶ä»æ»²éæè¡å¯ä»¥å æ¬ä½ä¸éæ¼OROSPush-PullåOROSä¸å±¤è¥ç©çµåç©ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼å»èæ®æ±ç¡«é ¸é¹½å¯ä»¥ä½µå ¥ä¸OROSè¥ç©è¼¸é系統ãé種æ§å¶éæ¾è¥ç©çµåç©çµæçå»èæ®æ±ç¡«é ¸é¹½ï¼å¦é©åå£æçæ»²éæ§æ´»æ§è¥ç©çµåç©ï¼å¯è½è¼ç®åå¸å®çå½¢å¼çå»èæ®æ±éé¹½ææ´æä¹ ççæãIn another embodiment, the tianeptine sulfate can be incorporated into a pharmaceutically active pharmaceutical composition suitable for oral administration. Permeable active pharmaceutical compositions suitable for oral administration, osmotic pumps, osmotic administration, and other infiltration techniques may include, but are not limited to, OROS Push-Pull and OROS A three-layer pharmaceutical composition. In another embodiment, the tianeptine sulfate can be incorporated into an OROS Drug delivery system. The stanopeptine sulfate of such a controlled release pharmaceutical composition, such as a osmotically active pharmaceutical composition suitable for oral administration, may have a more durable effect than the currently marketed form of tianeptine sodium salt.
æ¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ãå»èæ®æ±å®æ°´åç¡«é ¸é¹½å ·æä»¥ä¸çµæ§(II)ï¼In another embodiment of the invention, tianeptine monohydrate hemisulfate is included. The tianeptine monohydrate hemisulfate has the following structure (II):
å¨ä¸äºå ·é«å¯¦æ½ä¾ï¼æ¬ç¼ææ¯éå°å»èæ®æ±å®æ°´åç¡«é ¸é¹½çµæ¶ç©çåå¼ãIn some embodiments, the invention is directed to a form of tianeptine monohydrate hemisulfate crystals.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±å®æ°´åç¡«é ¸é¹½åå¨è³å°å¨ä¸å¯æª¢æ¸¬åºçæ¸éï¼å¦å»èæ®æ±å®æ°´åç¡«é ¸é¹½çµæ¶ç©ãä¾å¦ï¼å¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±å®æ°´åç¡«é ¸é¹½å¯è½åå¨éç´20%è³ç´100%ééçå»èæ®æ±å®æ°´åç¡«é ¸é¹½çµæ¶ãIn another embodiment, the tianeptine monohydrate hemisulfate is present in at least one detectable amount, such as tianeptine monohydrate hemisulfate crystals. For example, in some embodiments, tianeptine monohydrate hemisulfate may be present in an amount from about 20% to about 100% by weight of tianeptine monohydrate hemisulfate crystals.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬ä¸å2-θçºç´8.97åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬ä¸å2-θçºç´8.25åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬ä¸å2-θçºç´11.49åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.25åç´8.97åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.97åç´11.49åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´13.91åç´14.73åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.25ãç´8.97åç´11.49åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.97ãç´14.73ãç´18.07åç´19.39åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.25ãç´11.49ãç´13.91ãç´16.95åç´20.59åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´16.95ãç´18.07ãç´19.39åç´20.59åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´13.91ãç´14.73ãç´22.83åç´23.27åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.25ãç´8.97ãç´11.49ãç´13.91åç´14.73åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´16.95ãç´18.07ãç´19.39ãç´20.59ãç´21.99åç´23.27åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.25ãç´8.97ãç´11.49ãç´13.91ãç´14.73ãç´16.95ãç´18.07ãç´19.39ãç´20.59ãç´21.99ãç´22.83åç´23.27åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.25ãç´13.91åç´14.73åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.97ãç´18.07ãç´19.39åç´20.59åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´8.97ãç´11.49ãç´13.91ãç´18.07ãç´19.39åç´20.59åº¦çæ³¢å³°ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çPXRDç¹å°ååºæ¬ä¸é¡ä¼¼æ¼å1ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çDSC溫度è¨éåä¸ï¼å å«ä¸ç´ææ°193度çå¸ç±è½æ§é»ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾DSC溫度è¨éååºæ¬ä¸é¡ä¼¼æ¼å2ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çTGA溫度è¨éååºæ¬ä¸é¡ä¼¼æ¼å3ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½åç¾çåæ æ°´ä»½å¸éåæ(DVS)åºæ¬ä¸é¡ä¼¼æ¼å4ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼å»èæ®æ±å®æ°´åç¡«é ¸é¹½å¯ç´å ¥æ§å¶éæ¾è¥ç©çµåç©ãIn another embodiment, the invention comprises tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises a peak having a 2-theta of about 8.97 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises a peak having a 2-theta of about 8.25 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises a peak having a 2-theta of about 11.49 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises a peak having a 2-theta of about 8.25 and about 8.97 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises a peak having a 2-theta of about 8.97 and about 11.49 degrees. In another embodiment, the invention comprises tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises a peak having a 2-theta of about 13.91 and about 14.73 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises a peak having a 2-theta of about 8.25, about 8.97, and about 11.49 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate exhibits a PXRD diffraction pattern comprising 2-theta of about 8.97, about 14.73, about 18.07, and about 19.39 degrees. The crest. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises 2-theta of about 8.25, about 11.49, about 13.91, about 16.95, and A peak of about 20.59 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by monohydrate hemisulfate comprises 2-theta of about 16.95, about 18.07, about 19.39, and about 20.59 degrees. The crest. In another embodiment, the invention comprises tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate exhibits a PXRD diffraction pattern comprising 2-theta of about 13.91, about 14.73, about 22.83, and about 23.27 degrees. The crest. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises 2-theta of about 8.25, about 8.97, about 11.49, about 13.91, and A peak of about 14.73 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises 2-theta of about 16.95, about 18.07, about 19.39, about 20.59, A peak of about 21.99 and about 23.27 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate exhibits a PXRD diffraction pattern comprising 2-theta of about 8.25, about 8.97, about 11.49, about 13.91, Peaks of about 14.73, about 16.95, about 18.07, about 19.39, about 20.59, about 21.99, about 22.83, and about 23.27 degrees. In another embodiment, the invention comprises tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises a peak having a 2-theta of about 8.25, about 13.91, and about 14.73 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate exhibits a PXRD diffraction pattern comprising 2-theta of about 8.97, about 18.07, about 19.39, and about 20.59 degrees. The crest. In another embodiment, the invention comprises tianeptine monohydrate hemisulfate, wherein the PXRD diffraction pattern exhibited by the monohydrate hemisulfate comprises 2-theta of about 8.97, about 11.49, about 13.91, about 18.07, A peak of about 19.39 and about 20.59 degrees. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate exhibits a PXRD diffraction pattern substantially similar to that of FIG. In another embodiment, the invention includes tianeptine monohydrate hemisulfate wherein the monohydrate hemisulfate exhibits a DSC thermogram comprising an endothermic transition point of about 193 degrees Celsius. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate exhibits a DSC thermogram similar to that of FIG. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate exhibits a TGA thermogram similar to that of FIG. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate exhibits a dynamic moisture adsorption analysis (DVS) substantially similar to that of FIG. In another specific embodiment, tianeptine monohydrate hemisulfate can be incorporated into a controlled release pharmaceutical composition.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶ä¸ï¼ç¡«é ¸é¹½çºé叿¿æ§çãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶ä¸ï¼ç¡«é ¸é¹½å¨ç´10%å·¦å³çç¸å°æ¿åº¦è³ç´90%å·¦å³çç¸å°æ¿åº¦ä¸çºé叿¿æ§çãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å ¶ä¸ï¼å®æ°´åç¡«é ¸é¹½æ¼DVSææ°25度ï¼ç´10%å·¦å³çç¸å°æ¿åº¦è³ç´90%å·¦å³çç¸å°æ¿åº¦ä¸çºé叿¿æ§çãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶ä¸ï¼ç¡«é ¸é¹½å¨ç´20%å·¦å³çç¸å°æ¿åº¦è³ç´80%å·¦å³çç¸å°æ¿åº¦ä¸çºé叿¿æ§çãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶ä¸ï¼ç¡«é ¸é¹½å¨ç´30%å·¦å³çç¸å°æ¿åº¦è³ç´70%å·¦å³çç¸å°æ¿åº¦ä¸çºé叿¿æ§çãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶ä¸ï¼ç¡«é ¸é¹½çºå®å ¨ç©©å®çãå¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶ä¸ï¼ç¡«é ¸é¹½å¨ç´10%å·¦å³çç¸å°æ¿åº¦è³ç´90%å·¦å³çç¸å°æ¿åº¦ä¸çºå®å ¨ç©©å®çãå¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶ä¸ï¼ç¡«é ¸é¹½å¨ç´20%å·¦å³çç¸å°æ¿åº¦è³ç´80%å·¦å³çç¸å°æ¿åº¦ä¸çºå®å ¨ç©©å®çãå¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç¡«é ¸é¹½ï¼å ¶ä¸ï¼ç¡«é ¸é¹½å¨ç´30%å·¦å³çç¸å°æ¿åº¦è³ç´70%å·¦å³çç¸å°æ¿åº¦ä¸çºå®å ¨ç©©å®çãIn another embodiment, the invention includes a tianeptine sulfate wherein the sulfate is non-hygroscopic. In another embodiment, the invention includes a tianeptine sulfate wherein the sulfate is non-hygroscopic at a relative humidity of from about 10% to about 90% relative humidity. In another embodiment, the invention includes tianeptine monohydrate hemisulfate, wherein the monohydrate hemisulfate is at a DVS of 25 degrees Celsius, a relative humidity of about 10% to a relative humidity of about 90%. It is non-hygroscopic. In another embodiment, the invention includes a tianeptine sulfate wherein the sulfate is non-hygroscopic at a relative humidity of from about 20% to about 80% relative humidity. In another embodiment, the invention includes a tianeptine sulfate wherein the sulfate is non-hygroscopic at a relative humidity of from about 30% to about 70% relative humidity. In another embodiment, the invention includes a tianeptine sulfate wherein the sulfate is completely stable. In another embodiment, the invention includes a tianeptine sulfate wherein the sulfate is fully stable at a relative humidity of from about 10% to about 90% relative humidity. In another embodiment, the invention includes a tianeptine sulfate wherein the sulfate is fully stable at a relative humidity of from about 20% to about 80% relative humidity. In another embodiment, the invention includes a tianeptine sulfate wherein the sulfate is fully stable at a relative humidity of from about 30% to about 70% relative humidity.
æ ¹ææ¬ç¼æï¼å»èæ®æ±ç¡«é ¸é¹½å¯æä¸åçé¢ååå»èæ®æ±(é½é¢å)å°ç¡«é ¸é¹½ç¸å°é¢å(é°é¢å)çåå¸ç¶éæ¯ãä¾å¦ï¼é½é¢åï¼è² é¢åçæ¯çå¯çº1:1æ2:1ãå ¶ä»çç¶éæ¯çä¹å æ¬æ¼æ¬ç¼æä¸ãå¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±å®æ°´åç¡«é ¸é¹½å æ¬ä¸åé¢åå»èæ®æ±æ¯ç¡«é ¸æ¯æ°´ç´çº2:1:2çæ¯çãAccording to the present invention, tianeptine sulfate may have a different stoichiometric ratio of ionized tianeptine (cation) to sulfate relative ion (anion). For example, the ratio of cation: negative ions can be 1:1 or 2:1. Other equivalent ratios are also included in the present invention. In some embodiments, the tianeptine monohydrate hemisulfate comprises a ratio of ionic tianeptine to sulfuric acid to water of about 2:1:2.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±ç¡«é ¸é¹½åå ¶è£½åè使ç¨çæ¹æ³ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå æ¬äºå»èæ®æ±ç¡«é ¸é¹½çæ°´åç©åå ¶è£½åè使ç¨çæ¹æ³ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå æ¬äºçå»èæ®æ±ç¡«é ¸é¹½ç溶ååç©ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æç±ä¸åæå¤åå»èæ®æ±ç¡«é ¸é¹½å¤å½¢é«ï¼æä¸åæå¤åå¤å»èæ®æ±ç¡«é ¸é¹½æ°´åç©ææº¶ååç©çå¤å½¢é«ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå æ¬å»èæ®æ±ç¡«é ¸é¹½çå ±æ¶é«ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±ç¡«é ¸é¹½ä¹ç¡å®å½¢é«åå ¶è£½åè使ç¨çæ¹æ³ãIn another embodiment, the invention includes tianeptine sulfate and methods of making and using same. In another embodiment, the invention includes hydrates of tianeptine sulfate and methods of making and using same. In another embodiment, the invention includes a solvate of tianeptine sulfate. In another embodiment, the invention consists of one or more tianeptine sulphate polymorphs, or one or more polymorphs of thiapineptin sulfate hydrate or solvate. In another embodiment, the invention includes a co-crystal of tianeptine sulfate. In another embodiment, the invention includes an amorphous form of tianeptine sulfate and methods of making and using same.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼ä¸å»èæ®æ±ç¡«é ¸é¹½å½¢å¼å¯ä»¥å卿¼ï¼ä¾å¦ï¼ä½ä¸éæ¼ï¼ä¸ç¡æ°´å½¢å¼ï¼ä¸æ°´åç©å½¢å¼ï¼ä¸è«æ°´å½¢å¼æä¸æº¶ååç©çå½¢å¼ãé種水åç©å溶ååç©å½¢å¼å¯æä¸åå»èæ®æ±é¢åæ¯ä¸æ°´ææº¶ååç©ååçåå¸ç¶éï¼ä¾å¦ï¼ä½ä¸éæ¼ç´1:1ã1:1.5ã2:1æ1:2ãIn another embodiment, the tianeptine sulfate form may be present, for example, but not limited to, in the form of an anhydrous form, a monohydrate form, a dehydrated form or a solvate. Such hydrate and solvate forms may have different stoichiometric equivalents of the tianeptine ion to the water or solvate molecule, such as, but not limited to, about 1:1, 1:1.5, 2:1, or 1:2. .
å¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼ææä¾äºä¸è£½åå»èæ®æ±ç¡«é ¸é¹½çæ¹æ³ï¼å æ¬ï¼In another embodiment, the invention provides a method of preparing tianeptine sulfate, comprising:
(a)æä¾å»èæ®æ±æå ¶éé¹½ï¼å(a) providing tianeptine or a sodium salt thereof;
(b)å»èæ®æ±æå ¶éé¹½èç¡«é ¸ä½ç¨ï¼ä»¥å½¢æçµæ¶åçå»èæ®æ±ç¡«é ¸é¹½ã(b) The tianeptine or its sodium salt acts with sulfuric acid to form a crystallized tianeptine sulfate.
å¨ä¸åç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼å ¶ä¸å»èæ®æ±çå½¢å¼çºéé¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¼å å ¥ç¡«é ¸åå å°ä¸æº¶åæ·»å å°å»èæ®æ±æå ¶éé¹½ä¸ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¥é©(b)卿º¶ååå¨ä¸å®æï¼ä½¿å¾æº¶æ¶²å¨ç¡«é ¸é¹½çµæ¶åå½¢æãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¥é©(b)卿º¶ååå¨ä¸å®æï¼ä½¿å¾æ¸æµ®æ¶²å¨ç¡«é ¸é¹½çµæ¶åå½¢æã卿äºå ·é«å¯¦æ½ä¾ä¸ï¼æº¶åæ¯é¸èªç±ï¼ä¸é ®ï¼ä¹éï¼ç¡åºç²ç·ï¼ç²éï¼ä¹è ï¼äºæ°¯ç²ç·ï¼æ°´ååæ°«åå(THF)æçµæç群çµãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼ä¸æº¶åå¯çºä»»ä½å ©åæå ©å以䏿º¶åæå½¢æçæ··åç©ï¼å ¶å æ¬ä½ä¸éæ¼ä¸é ®ï¼ä¹éï¼ç¡åºç²ç·ï¼ç²éï¼ä¹è ï¼äºæ°¯ç²ç·ï¼æ°´ååæ°«ååãIn a specific embodiment, wherein the form of tianeptine is a sodium salt. In another embodiment, a solvent is added to the tianeptine or its sodium salt prior to the addition of sulfuric acid. In another embodiment, step (b) is carried out in the presence of a solvent such that the solution forms prior to crystallization of the sulfate. In another embodiment, step (b) is carried out in the presence of a solvent such that the suspension forms prior to crystallization of the sulfate. In certain embodiments, the solvent is selected from the group consisting of: acetone, ethanol, nitromethane, methanol, acetonitrile, dichloromethane, water, and tetrahydrofuran (THF). In another embodiment, a solvent can be a mixture of any two or more solvents including, but not limited to, acetone, ethanol, nitromethane, methanol, acetonitrile, dichloromethane, water, and tetrahydrofuran.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼ææä¾äºä¸ç¨®è£½åå»èæ®æ±å®æ°´åç¡«é ¸é¹½çæ¹æ³ï¼å æ¬æ¥é©ï¼In another embodiment, the present invention provides a method of preparing tianeptine monohydrate hemisulfate, comprising the steps of:
(a)å°å»èæ®æ±æå ¶éé¹½æº¶è§£æ¼æ°´åéé ¸çæ··åç©ä¸ï¼(a) dissolving tianeptine or a sodium salt thereof in a mixture of water and acetic acid;
(b)å å ¥ä¸æº¶åå®ç¨çºæ°´æçµåäºéé ¸çç¡«é ¸æº¶æ¶²æ¼æ¥é©(a)ä¹åææ··åç©ï¼å(b) adding a solvent to the reaction mixture of step (a), either alone or in combination with acetic acid in sulfuric acid;
(c)çµæ¶åºå»èæ®æ±å®æ°´åç¡«é ¸é¹½ã(c) Crystallization of tianeptine monohydrate hemisulfate.
å¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼è©²æ¹æ³éå¯é²ä¸æ¥çå 嫿¥é©ï¼In some embodiments, the method may further comprise the steps of:
(d)ç±ä¸è¿°æ¥é©(c)çåææ··åç©ä¸åé¢åºæç²å¾çå»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼(d) separating the obtained tianeptine monohydrate hemisulfate from the reaction mixture of the above step (c);
(e)以水åéé ¸çæ··åç©æ¸ æ´å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼(e) washing tianeptine monohydrate hemisulfate with a mixture of water and acetic acid;
(f)é²ä¸æ¥æ¸ ä»¥æ°´æ¸ æ´å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼å(f) further cleaning the tianeptine monohydrate hemisulfate with water; and
(g)ä¹¾ç¥å»èæ®æ±å®æ°´åç¡«é ¸é¹½ã(g) Drying tianeptine monohydrate hemisulfate.
å¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼å¯¦æ½æ¤æ¹æ³ä¸å å«åé¢å¦ä¸æç¤ºçä¸éç©ï¼In some embodiments, implementing the method does not involve isolating the intermediates shown below:
å»èæ®æ±èªç±é¹¼åå»èæ®æ±é坿¼æè¡é åä¸å¯ç²å¾çä¸åæå¤åæ¹æ³ä¾è£½åï¼å ¶å æ¬ä½ä¸éæ¼ç¾åå°å©ç¬¬3,758,528èçæ¹æ³ãThe tianeptine free base and tianeptine sodium can be prepared by one or more methods available in the art including, but not limited to, the method of U.S. Patent No. 3,758,528.
卿¬ç¼æçä¸åå ·é«å¯¦æ½ä¾ä¸ï¼ä¸å¯èª¿ç¯åºä¹³åç©çççå/ææ²»çåºä¹³åç©çææéå»èæ®æ±ç¡«é ¸é¹½è¢«æ½äºè³æè¿°åºä¹³åç©ãå¨å¦ä¸æ¹é¢ï¼æ½äºè¶³ä»¥å½±é¿èª¿ç¯åºä¹³åç©çççå/ææ²»ççææéå»èæ®æ±ç¡«é ¸é¹½ãIn a specific embodiment of the invention, an effective amount of tianeptine sulfate, which modulates the physiological and/or therapeutic mammalian of the mammal, is administered to the mammal. In another aspect, an effective amount of tianeptine sulfate is administered sufficient to affect the physiology and/or treatment of the mammal.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æä¾ä¸æ²»çæ£ææé¬±çä¹åºä¹³åç©çæ¹æ³ï¼å æ¬æ½äºæè¿°åºä¹³åç©ææéçå»èæ®æ±ç¡«é ¸é¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æä¾äºä¸ç¨®æ²»çæ²»çæ£æè ¸èºçä¹åºä¹³åç©çæ¹æ³ï¼å æ¬æ½äºæè¿°åºä¹³åç©ææéä¹å»èæ®æ±ç¡«é ¸é¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æä¾äºä¸ç¨®æ²»çæ£ææ³¨æå缺é·éåçä¹åºä¹³åç©çæ¹æ³ï¼å æ¬æ½èæè¿°åºä¹³åç©ææéä¹å»èæ®æ±ç¡«é ¸é¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æä¾äºä¸ç¨®æ²»çæ£æå®åä¹åºä¹³åç©çæ¹æ³ï¼å æ¬æ½èæè¿°åºä¹³åç©ææéä¹å»èæ®æ±ç¡«é ¸é¹½ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ä¸ï¼æè¿°ä¹åºä¹³åç©çºäººé¡ãIn another embodiment, a method of treating a mammal suffering from depression comprising administering an effective amount of tianeptine sulfate to the mammal is provided. In another embodiment, a method of treating a mammal suffering from intestinal fistula is provided, comprising administering to the mammal an effective amount of tianeptine sulfate. In another embodiment, a method of treating a mammal suffering from attention deficit hyperactivity disorder comprising administering an effective amount of tianeptine sulfate to the mammal is provided. In another embodiment, a method of treating a mammal having asthma comprising administering an effective amount of tianeptine sulfate to the mammal is provided. In another specific embodiment, the mammal is a human.
æ¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å æ¬äºè£½åä¸è¥åï¼å å«äºå»èæ®æ±ç¡«é ¸é¹½ãé種è¥åå¯ç¨æ¼éè¦æ¤ç¨®æ²»ççåºä¹³åç©ï¼ç¨ä»¥æ²»çæé¬±çï¼è ¸èºçï¼æ³¨æå缺é·éåçï¼ä¸ç¨®æå¤ç¨®ç¥ç¶éåæ§ç¾ç æå®åçç¾ç ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ä¸ï¼æè¿°åºä¹³åç©æ¯äººãIn another embodiment of the invention, the preparation of a medicament comprising tianeptine sulfate is included. Such agents are useful in mammals in need of such treatment for the treatment of depression, intestinal cramps, attention deficit hyperactivity disorder, one or more neurodegenerative diseases or asthma. In another specific embodiment, the mammal is a human.
å»èæ®æ±ç¡«é ¸é¹½çè¥åååç坿å¤ç¨®æ½èçæ¹æ³ï¼å ¶å æ¬ä½ä¸éæ¼å£æã壿é«è¥ç©çµåç©åååççºæ¨¡ç¯ååãåæå£æååå¯çºåºé«ååï¼å¦é åï¼ä¸æåé ï¼ä¸ç¡¬è åï¼ä¸æ¾±ç²è åï¼ä¸ç¾¥ä¸åºç²åºçºç¶ç´ (HPMC)è åï¼æä¸è»å½æ§æè è åãæ¬ç¼æä¹é åå¯ç±ä»»ä½æ¤é åå·²ç¥ä¹æ¹æ³è£½é ãé å製åçå³çµ±æ¹æ³ï¼å æ¬ç´æ¥å£ç¸®(ã乾混åã)ï¼ä¹¾ç¥é ç²å¾å£ç¸®åæ¿é ç²å¾ä¹¾ç¥åå£ç¸®ãå ¶ä»æ¹æ³å æ¬ä½¿ç¨æ»¾åå£å¯¦æè¡ï¼å¦chilsonatoræè½å·®è»è¼¥ãææåãæéé ï¼ææ 壿è¡ãææéäºæ¹æ³ççºæè¡é åä¸ç¿ç¥ï¼ä¸¦æè©³ç´°æè¿°ï¼ä¾å¦Lachman,et al.,âThe Theory and Practice of Industrial Pharmacy,âChapter 11,(3rd Ed. 1986),æ¼æ¤ä½µçºåèãæ¬ç¼æä¹æä¾äºæ¶²é«ååï¼å ¶ä¸å æ¬ä¸åçºéå¶çä¾å妿¸æµ®æ¶²ã溶液ãç³æ¼¿æä¹³åãPharmaceutical dosage forms of tianeptine sulfate may be administered in a variety of ways including, but not limited to, oral. Oral pharmaceutical compositions and dosage forms are exemplary dosage forms. Alternatively, the oral dosage form can be a solid dosage form such as a troche, an easy-to-swallow tablet, a hard capsule, a starch capsule, a hydroxypropyl methylcellulose (HPMC) capsule, or a soft elastic gelatin capsule. Tablets of the present invention can be made by any method known in the art. Conventional methods for the preparation of tablets include direct compression ("dry mixing"), dry granulation followed by compression and wet granulation followed by drying and compression. Other methods include the use of rolling compaction techniques such as chilsonator or drop rolls, or forming, or casting, or extrusion techniques. All of these methods are all conventional art, and described in detail, for example, Lachman, et al., "The Theory and Practice of Industrial Pharmacy," Chapter 11, (3 rd Ed. 1986), and by reference thereto. The invention also provides liquid dosage forms which include, without limitation, examples such as suspensions, solutions, syrups or emulsions.
å»èæ®æ±ç¡«é ¸é¹½ä»¥æ§å¶æå»¶é²éæ¾çææ®µä¾æè¥ãæ§éçé«è¥ç¢åé常é½å ·æä¸æ¹åå ¶éæ§éè¥ç©ççæçä¸è¬ç®æ¨ãçæ³æ æ³ä¸ï¼å©ç¨åªåè¨è¨çæ§é製åå¨é«çä¸ç¹é»æ¯ä»¥æä½çAPI(æ´»æ§è¥ç©æå)ç©è³ªéæ¾æ¼æççæéå §ä¾æ²»çææ§å¶ç æ ãåªé¸çæ§éé«è¥çµåç©ä¸è¬å æ¬ï¼1)å»¶é²äºAPIçæ´»æ§ï¼2)æ¸å°åéçé »çï¼3)æé«ç 人çé ææ§ï¼4)è¼å°ç¸½APIçåéï¼5)æ¸å°å±é¨æå ¨èº«æ§çå¯ä½ç¨ï¼6)APIçç©ç´¯æå°åï¼7)æ¸å°è¡æ¶²æ¿åº¦çæ³¢åï¼8)æ¹åæ²»çææï¼9)éä½å¢å¼·ææææ¸ä½APIæ´»æ§ï¼å10)æ¹åæ§å¶ç¾ç æå¾µççæ§å¶é度ã(Kim,Cherng-ju,Controlled Release Dosage Form Design,2 Technomic Publishing,Lancaster,Pa.: 2000)ãThe tianeptine sulfate is administered by means of controlled or delayed release. Controlled release pharmaceutical products generally have a general goal of improving the efficacy of their non-controlled release drugs. Ideally, the use of an optimized design of a controlled release formulation is medically characterized by the release of the lowest API (active pharmaceutical ingredient) in the shortest amount of time to cure or control the condition. Preferred controlled release pharmaceutical compositions generally include: 1) delayed API activity; 2) reduced dose frequency; 3) improved patient compliance; 4) less total API dose; 5) reduced local or systemic Side effects; 6) Minimization of API accumulation; 7) Reduction of fluctuations in blood concentration; 8) Improvement of therapeutic effect; 9) Reduction of enhancement effect or reduction of API activity; and 10) Improvement of control rate of control of disease or symptoms. (Kim, Cherng-ju, Controlled Release Dosage Form Design, 2 Technomic Publishing, Lancaster, Pa.: 2000).
æ¬ç¼æä¹ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼å ¸åçæ¯æ¥åéå æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶åéå¾ç´10.0毫å è³50.0毫å å·¦å³ï¼ç´12.5毫å è³50.0毫å å·¦å³ï¼ç´12.5毫å è³37.5毫å ï¼æç´25.0毫å è³37.5毫å ãå¨ä¸ç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç¡«é ¸é¹½æ¼æ¤ç¨®çµåä¸çºå»èæ®æ±å®æ°´åç¡«é ¸é¹½ã卿¬ææè¿°çåéçºå»èæ®æ±èªç±é¹¼çåéï¼ä¸å æ¬ç¸å°é¢å(å¦ç¡«é ¸)æä»»ä½æ°´ææº¶åååçééãIn some embodiments of the invention, a typical daily dose comprises tianeptine sulfate at a dose of from about 10.0 mg to about 50.0 mg, from about 12.5 mg to about 50.0 mg, from about 12.5 mg to about 37.5 mg, or about 25.0 mg to 37.5 mg. In a specific embodiment, the tianeptine sulfate is tianeptine monohydrate hemisulfate in this combination. The dosages described herein are doses of tianeptine free base, excluding the weight of relative ions (such as sulfuric acid) or any water or solvent molecules.
卿¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ï¼ä¸é«è¥çµåç©ï¼å æ¬å£æå»èæ®æ±ç¡«é ¸é¹½å¿ è¦çåéï¼ç±ç´10.0毫å è³50.0毫å å·¦å³ï¼ç´12.5毫å è³50.0毫å å·¦å³ï¼ç´25.0毫å è³50.0毫å å·¦å³ï¼æç´37.5毫å è³50.0毫å å·¦å³çå»èæ®æ±ãä¾å¦ï¼ç´12.5毫å ï¼ç´25.0æ¯«å æç´37.5毫å ãå¨ç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼è¥åæåå æ¬å¯å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼åéç´çº25.0æ¯«å æç´37.5毫å ãåé總é¡å¯å®ä¸æå次æ½è¥ãå¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼è©²ååçºæ¯å¤©æ½è¥ä¸æ¬¡ãå¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼è©²ååçºæ¯å¤©æ½è¥å¤æ¬¡ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¯æ¥åéçé«è¥çµåç©å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶å æ¬æå¤ä¸è¶ é50.0毫å çå»èæ®æ±ãIn another embodiment of the invention, a pharmaceutical composition, including oral tianeptine sulfate, is administered at a dose of from about 10.0 mg to about 50.0 mg, from about 12.5 mg to about 50.0 mg, and from about 25.0 mg to about 50.0 mg. Left and right, or about 37.5 mg to 50.0 mg of tianeptine. For example, about 12.5 mg, about 25.0 mg or about 37.5 mg. In a particular embodiment, the pharmaceutical composition comprises an orally available tianeptine sulfate at a dose of about 25.0 mg or about 37.5 mg. The total dose can be administered in a single or divided dose. In some embodiments, the dosage form is administered once a day. In some embodiments, the dosage form is administered multiple times per day. In another specific embodiment, the daily dose of the pharmaceutical composition comprises tianeptine sulfate comprising up to 50.0 mg of tianeptine.
å¨ä¸äºå ·é«å¯¦æ½ä¾ï¼æ¬ç¼æçæ¯æ¥åéå½¢å¼å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶åéç´25.0毫å è³ç´200.0毫å ï¼ç´25.0毫å è³ç´150.0毫å ï¼ç´25.0毫å è³100.0毫å ï¼æç´25.0毫å è³75.0毫å å·¦å³ãå¨ä¸åç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼æ¼çµåç©ä¸çå»èæ®æ±ç¡«é ¸é¹½çºå»èæ®æ±å®æ°´åç¡«é ¸é¹½ã卿¬ææè¿°çåéçºå»èæ®æ±èªç±é¹¼çåéï¼ä¸å æ¬ç¸å°é¢å(å¦ç¡«é ¸)æä»»ä½æ°´ææº¶åååçééãIn some embodiments, the daily dosage form of the invention comprises tianeptine sulfate at a dose of from about 25.0 mg to about 200.0 mg, from about 25.0 mg to about 150.0 mg, from about 25.0 mg to 100.0 mg, or about 25.0 mg. It is about 75.0 mg. In a specific embodiment, the tianeptine sulfate in the composition is tianeptine monohydrate hemisulfate. The dosages described herein are doses of tianeptine free base, excluding the weight of relative ions (such as sulfuric acid) or any water or solvent molecules.
卿¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼ä¸é«è¥çµåç©ï¼å æ¬å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼å¿ è¦åéç´25.0毫å è³ç´200.0毫å ï¼ç´25.0毫å è³ç´150.0毫å ï¼ç´25.0毫å è³ç´100.0毫å ï¼ç´25.0毫å è³75.0毫å å·¦å³ï¼æç´50.0毫å è³75.0毫å å·¦å³çå»èæ®æ±ãä¾å¦ï¼ç´25.0毫å ï¼ç´50.0毫å ï¼æç´75.0毫å ãå¨ç¹ç°çå ·é«å¯¦æ½ä¾ä¸ï¼é«è¥çµåç©å æ¬å¯å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼åéç´çº25.0毫å ï¼ç´50.0毫å ï¼æ75.0毫å å·¦å³ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¯æ¥åéçé«è¥çµåç©ï¼å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶å æ¬æå¤ä¸è¶ é100.0毫å çå»èæ®æ±ãIn another embodiment of the invention, a pharmaceutical composition comprising orally oral tianeptine sulfate, a necessary dose of from about 25.0 mg to about 200.0 mg, from about 25.0 mg to about 150.0 mg, from about 25.0 mg to about 100.0 Mg, about 25.0 mg to 75.0 mg, or about 50.0 mg to 75.0 mg of tianeptine. For example, about 25.0 mg, about 50.0 mg, or about 75.0 mg. In a specific embodiment, the pharmaceutical composition comprises an orally available tianeptine sulfate at a dose of about 25.0 mg, about 50.0 mg, or about 75.0 mg. In another embodiment, a daily dosage of a pharmaceutical composition comprising tianeptine sulfate comprises up to no more than 100.0 mg of tianeptine.
æ¬ç¼æçä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼æ¯æ¥åéå½¢å¼å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼åéç´30.0毫å è³ç´200.0毫å ï¼ç´30.0毫å è³ç´150.0毫å ï¼ç´30.0毫å è³100.0毫å ï¼æç´30.0毫å è³60.0毫å å·¦å³ãå¨ä¸åç¹å®çå ·é«å¯¦æ½ä¾ï¼æ¼çµåç©ä¸çå»èæ®æ±ç¡«é ¸é¹½çºå»èæ®æ±å®æ°´åç¡«é ¸é¹½ã卿¬ææè¿°çåéçºå»èæ®æ±èªç±é¹¼çåéï¼ä¸å æ¬ç¸å°é¢å(å¦ç¡«é ¸)æä»»ä½æ°´ææº¶åååçééãIn some embodiments of the invention, the daily dosage form comprises tianeptine sulfate, at a dose of from about 30.0 mg to about 200.0 mg, from about 30.0 mg to about 150.0 mg, from about 30.0 mg to 100.0 mg, or from about 30.0 mg to About 60.0 mg. In a specific embodiment, the tianeptine sulfate in the composition is tianeptine monohydrate hemisulfate. The dosages described herein are doses of tianeptine free base, excluding the weight of relative ions (such as sulfuric acid) or any water or solvent molecules.
æ¼æ¬ç¼æçå¦ä¸å ·é«å¯¦æ½ä¾ï¼ä¸é«è¥çµåç©ï¼å æ¬å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼å¿ è¦åéç´30.0毫å è³ç´200.0毫å ï¼ç´30.0毫å è³ç´150.0毫å ï¼ç´30.0毫å è³ç´100.0毫å ï¼ç´30.0毫å è³60.0毫å å·¦å³çå»èæ®æ±ãä¾å¦ï¼ç´30.0毫å ï¼60.0毫å å·¦å³ï¼ç´100.0毫å ãå¨ç¹å®çå ·é«å¯¦æ½ä¾ï¼è¥åæåå æ¬å¯å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼åéç´çº30.0毫å ï¼ç´60.0毫å ï¼ç´100.0毫å ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¯æ¥åéçé«è¥çµåç©ï¼å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶å æ¬æå¤ä¸è¶ é100.0毫å çå»èæ®æ±ãIn another embodiment of the invention, a pharmaceutical composition comprising orally oral tianeptine sulfate, a necessary dose of from about 30.0 mg to about 200.0 mg, from about 30.0 mg to about 150.0 mg, from about 30.0 mg to about 100.0 mg. , about 30.0 mg to 60.0 mg of tianeptine. For example, about 30.0 mg, about 60.0 mg, about 100.0 mg. In a specific embodiment, the pharmaceutical composition comprises an orally available tianeptine sulfate at a dose of about 30.0 mg, about 60.0 mg, and about 100.0 mg. In another embodiment, a daily dosage of a pharmaceutical composition comprising tianeptine sulfate comprises up to no more than 100.0 mg of tianeptine.
卿¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ï¼ä¸é«è¥çµåç©ï¼å æ¬å£æå»èæ®æ±ç¡«é ¸é¹½å¿ è¦çåéï¼ç±ç´10.0毫å è³50.0毫å å·¦å³ï¼ç´12.5毫å è³50.0毫å å·¦å³ï¼ç´25.0毫å è³50.0毫å å·¦å³ï¼æç´37.5毫å è³50.0毫å å·¦å³çå»èæ®æ±ãä¾å¦ï¼ç´12.5毫å ï¼ç´25.0æ¯«å æç´37.5毫å ãå¨ä¸ç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç¡«é ¸é¹½æ¼æ¤ç¨®çµåä¸çºå»èæ®æ±å®æ°´åç¡«é ¸é¹½ã卿¬ææè¿°çåéçºå»èæ®æ±èªç±é¹¼çåéï¼ä¸å æ¬ç¸å°é¢å(å¦ç¡«é ¸)æä»»ä½æ°´ææº¶åååçééãIn another embodiment of the invention, a pharmaceutical composition, including oral tianeptine sulfate, is administered at a dose of from about 10.0 mg to about 50.0 mg, from about 12.5 mg to about 50.0 mg, and from about 25.0 mg to about 50.0 mg. Left and right, or about 37.5 mg to 50.0 mg of tianeptine. For example, about 12.5 mg, about 25.0 mg or about 37.5 mg. In a specific embodiment, the tianeptine sulfate is tianeptine monohydrate hemisulfate in this combination. The dosages described herein are doses of tianeptine free base, excluding the weight of relative ions (such as sulfuric acid) or any water or solvent molecules.
卿¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ï¼ä¸é«è¥çµåç©ï¼å æ¬å£æå»èæ®æ±ç¡«é ¸é¹½å¿ è¦çåéï¼ç±ç´10.0毫å è³50.0毫å å·¦å³ï¼ç´12.5毫å è³50.0毫å å·¦å³ï¼ç´25.0毫å è³50.0毫å å·¦å³ï¼æç´37.5毫å è³50.0毫å å·¦å³çå»èæ®æ±ãä¾å¦ï¼ç´12.5毫å ï¼ç´25.0æ¯«å æç´37.5毫å ãå¨ç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼è¥åæåå æ¬å¯å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼åéç´çº25.0æ¯«å æç´37.5毫å ãåé總é¡å¯å®ä¸æå次æ½è¥ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¯æ¥åéçé«è¥çµåç©å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶å æ¬æå¤ä¸è¶ é50.0毫å çå»èæ®æ±ãIn another embodiment of the invention, a pharmaceutical composition, including oral tianeptine sulfate, is administered at a dose of from about 10.0 mg to about 50.0 mg, from about 12.5 mg to about 50.0 mg, and from about 25.0 mg to about 50.0 mg. Left and right, or about 37.5 mg to 50.0 mg of tianeptine. For example, about 12.5 mg, about 25.0 mg or about 37.5 mg. In a particular embodiment, the pharmaceutical composition comprises an orally available tianeptine sulfate at a dose of about 25.0 mg or about 37.5 mg. The total dose can be administered in a single or divided dose. In another specific embodiment, the daily dose of the pharmaceutical composition comprises tianeptine sulfate comprising up to 50.0 mg of tianeptine.
å¨ä¸äºå ·é«å¯¦æ½ä¾ï¼æ¬ç¼æçæ¯æ¥åéå½¢å¼å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶åéç´25.0毫å è³ç´200.0毫å ï¼ç´25.0毫å è³ç´150.0毫å ï¼ç´25.0毫å è³100.0毫å ï¼æç´25.0毫å è³75.0毫å å·¦å³ãå¨ä¸åç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼æ¼çµåç©ä¸çå»èæ®æ±ç¡«é ¸é¹½çºå»èæ®æ±å®æ°´åç¡«é ¸é¹½ã卿¬ææè¿°çåéçºå»èæ®æ±èªç±é¹¼çåéï¼ä¸å æ¬ç¸å°é¢å(å¦ç¡«é ¸)æä»»ä½æ°´ææº¶åååçééãIn some embodiments, the daily dosage form of the invention comprises tianeptine sulfate at a dose of from about 25.0 mg to about 200.0 mg, from about 25.0 mg to about 150.0 mg, from about 25.0 mg to 100.0 mg, or about 25.0 mg. It is about 75.0 mg. In a specific embodiment, the tianeptine sulfate in the composition is tianeptine monohydrate hemisulfate. The dosages described herein are doses of tianeptine free base, excluding the weight of relative ions (such as sulfuric acid) or any water or solvent molecules.
卿¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼ä¸é«è¥çµåç©ï¼å æ¬å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼å¿ è¦åéç´25.0毫å è³ç´200.0毫å ï¼ç´25.0毫å è³ç´150.0毫å ï¼ç´25.0毫å è³ç´100.0毫å ï¼ç´25.0毫å è³75.0毫å å·¦å³ï¼æç´50.0毫å è³75.0毫å å·¦å³çå»èæ®æ±ãä¾å¦ï¼ç´25.0毫å ï¼ç´50.0毫å ï¼æç´75.0毫å ãå¨ç¹ç°çå ·é«å¯¦æ½ä¾ä¸ï¼é«è¥çµåç©å æ¬å¯å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼åéç´çº25.0毫å ï¼ç´50.0毫å ï¼æ75.0毫å å·¦å³ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¯æ¥åéçé«è¥çµåç©ï¼å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶å æ¬æå¤ä¸è¶ é100.0毫å çå»èæ®æ±ãIn another embodiment of the invention, a pharmaceutical composition comprising orally oral tianeptine sulfate, a necessary dose of from about 25.0 mg to about 200.0 mg, from about 25.0 mg to about 150.0 mg, from about 25.0 mg to about 100.0 Mg, about 25.0 mg to 75.0 mg, or about 50.0 mg to 75.0 mg of tianeptine. For example, about 25.0 mg, about 50.0 mg, or about 75.0 mg. In a specific embodiment, the pharmaceutical composition comprises an orally available tianeptine sulfate at a dose of about 25.0 mg, about 50.0 mg, or about 75.0 mg. In another embodiment, a daily dosage of a pharmaceutical composition comprising tianeptine sulfate comprises up to no more than 100.0 mg of tianeptine.
æ¬ç¼æçä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼æ¯æ¥åéå½¢å¼å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼åéç´30.0毫å è³ç´200.0毫å ï¼ç´30.0毫å è³ç´150.0毫å ï¼ç´30.0毫å è³100.0毫å ï¼æç´30.0毫å è³60.0毫å å·¦å³ãå¨ä¸åç¹å®çå ·é«å¯¦æ½ä¾ï¼æ¼çµåç©ä¸çå»èæ®æ±ç¡«é ¸é¹½çºå»èæ®æ±å®æ°´åç¡«é ¸é¹½ã卿¬ææè¿°çåéçºå»èæ®æ±èªç±é¹¼çåéï¼ä¸å æ¬ç¸å°é¢å(å¦ç¡«é ¸)æä»»ä½æ°´ææº¶åååçééãIn some embodiments of the invention, the daily dosage form comprises tianeptine sulfate, at a dose of from about 30.0 mg to about 200.0 mg, from about 30.0 mg to about 150.0 mg, from about 30.0 mg to 100.0 mg, or from about 30.0 mg to About 60.0 mg. In a specific embodiment, the tianeptine sulfate in the composition is tianeptine monohydrate hemisulfate. The dosages described herein are doses of tianeptine free base, excluding the weight of relative ions (such as sulfuric acid) or any water or solvent molecules.
æ¼æ¬ç¼æçå¦ä¸å ·é«å¯¦æ½ä¾ï¼ä¸é«è¥çµåç©ï¼å æ¬å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼å¿ è¦åéç´30.0毫å è³ç´200.0毫å ï¼ç´30.0毫å è³ç´150.0毫å ï¼ç´30.0毫å è³ç´100.0毫å ï¼ç´30.0毫å è³60.0毫å å·¦å³çå»èæ®æ±ãä¾å¦ï¼ç´30.0毫å ï¼60.0毫å å·¦å³ï¼ç´100.0毫å ãå¨ç¹å®çå ·é«å¯¦æ½ä¾ï¼è¥åæåå æ¬å¯å£æçå»èæ®æ±ç¡«é ¸é¹½ï¼åéç´çº30.0毫å ï¼ç´60.0毫å ï¼ç´100.0毫å ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¯æ¥åéçé«è¥çµåç©ï¼å æ¬å»èæ®æ±ç¡«é ¸é¹½ï¼å ¶å æ¬æå¤ä¸è¶ é100.0毫å çå»èæ®æ±ãIn another embodiment of the invention, a pharmaceutical composition comprising orally oral tianeptine sulfate, a necessary dose of from about 30.0 mg to about 200.0 mg, from about 30.0 mg to about 150.0 mg, from about 30.0 mg to about 100.0 mg. , about 30.0 mg to 60.0 mg of tianeptine. For example, about 30.0 mg, about 60.0 mg, about 100.0 mg. In a specific embodiment, the pharmaceutical composition comprises an orally available tianeptine sulfate at a dose of about 30.0 mg, about 60.0 mg, and about 100.0 mg. In another embodiment, a daily dosage of a pharmaceutical composition comprising tianeptine sulfate comprises up to no more than 100.0 mg of tianeptine.
å¨å ¶ä»çå ·é«å¯¦æ½ä¾ï¼æ¬ç¼æçºéå°ä¸é«è¥çµåç©å ¶å«ææ¼æ¤æè¿°çå»èæ®æ±ç¡«é ¸é¹½åé©åæ½èåºä¹³åç©ç¨ä»¥æ²»çæé é²ä¸åæå¤åæ¼æ¤æè¿°ç å¾µçä¸åæå¤åç¨éåãè¼é«å/æè³¦å½¢åãæ¼ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼ä¸é«è¥çµåç©å å«å»èæ®æ±å®æ°´åç¡«é ¸é¹½åé«è¥ä¸å¯æ¥åçè¼é«ãå¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼é«è¥çµåçºæ¯æ§å¶éæ¾è¥ç©çµåç©ãå¨ä¸åå ·é«å¯¦æ½ä¾ä¸ï¼ä¸åå»èæ®æ±ç¡«é ¸é¹½æ§å¶éæ¾è¥ç©çµåç©æ¯èµ·å ¶ä»åå¼çå»èæ®æ±é«è¥çµåç©ï¼éè¦è¼å°çè³¦å½¢åæ··åè¤åç©ãIn other specific embodiments, the invention is directed to a pharmaceutical composition comprising the tianeptine sulfate described herein and one suitable for administration to a mammal for treating or preventing one or more of the symptoms described herein. Or a plurality of diluents, carriers and/or excipients. In some embodiments, a pharmaceutical composition comprises tianeptine monohydrate hemisulfate and a pharmaceutically acceptable carrier. In some embodiments, the pharmaceutical combination is a controlled release pharmaceutical composition. In a specific embodiment, a stanopeptine sulfate controlled release pharmaceutical composition requires less excipient mixed complex than other types of tianeptine pharmaceutical compositions.
æ¬ç¼æçå»èæ®æ±ç¡«é ¸é¹½éå¯ç¨æ¼è£½åä¸è¿°å£æè¥ç©ä»¥å¤çååï¼å¦å±é¨ååï¼æ³¨å°ååï¼ç©¿ç®å¸æ¶åååç²èååãèä¾ä¾èªªï¼éäºå½¢å¼å æ¬ä¹³éï¼ä¹³æ¶²ï¼æº¶æ¶²ï¼æ¸æµ®æ¶²ï¼ä¹³åï¼è¥èï¼ç²æ«ï¼è²¼çï¼æ åççãThe tianeptine sulfate of the present invention can also be used in the preparation of dosage forms other than the above oral drugs, such as topical dosage forms, injectable dosage forms, transdermal absorption dosage forms and mucosal dosage forms. For example, these forms include creams, lotions, solutions, suspensions, emulsions, ointments, powders, patches, suppositories, and the like.
å¨å ¶ä»çå ·é«å¯¦æ½ä¾ï¼æ¬ç¼æä¿éå°ä¸åæ§å¶éæ¾é åï¼å æ¬é«è¥å¸ä¸ææéçå»èæ®æ±ç¡«é ¸é¹½ï¼ç¹å¥æ¯å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼ä»¥åä¸åæå¤åæ§å¶éæ¾çèåç©ï¼å ¶ä¸ç¶æ½äºç äººå£æé åæï¼å¯æä¾äºä¸å¹³åæé«è¡æ¼¿æ¿åº¦(Cmax )çå»èæ®æ±ç´100ng/mlå°150ng/mlãå¨ä¸äºå ·é«å¯¦æ½ä¾ï¼å ¶ä¸ç¶æ½äºç äººå£æé åæï¼å¯æä¾äºä¸å¹³åæé«è¡æ¼¿æ¿åº¦(Cmax )çå»èæ®æ±ç´100ng/mlå°120ng/mlãé åå¯ä»¥å æ¬25毫å åéçå»èæ®æ±ãIn other embodiments, the present invention is directed to a controlled release lozenge comprising a pharmaceutically effective amount of tianeptine sulfate, particularly tianeptine monohydrate hemisulfate, and one or more controlled release A polymer wherein an average oral plasma concentration ( Cmax ) of tianeptine is provided from about 100 ng/ml to 150 ng/ml when administered to a patient. In some embodiments, wherein an average oral plasma concentration ( Cmax ) of tianeptine is provided from about 100 ng/ml to 120 ng/ml when administered to a patient. Tablets may include a 25 mg dose of tianeptine.
å¨ä¸äºå ·é«å¯¦æ½ä¾ï¼ç¶ä½¿ç¨ç¾åè¥å ¸æº¶è§£åå¨ç¬¬IIå(æ§³å)ï¼ä»¥100rpmæ¼900毫åçæ¨¡æ¬èæ¶²ï¼(pHå¼ç´1.2)37âä¸ï¼æ¸¬è©¦æ§éé åæ¼é«å¤æº¶åºåº¦ï¼ä¸å°æå¾éæ¾å°æ¼14%å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼ä¸å°æå¾éæ¾äºä»æ¼å¨45%è³80%çï¼å»èæ®æ±å®æ°´åç¡«é ¸é¹½ï¼ä¸¦å¨16å°æåï¼éæ¾äºè¶ é90%çå»èæ®æ±å®æ°´åç¡«é ¸é¹½ä»¥ééè¨ç®ãIn some embodiments, when the U.S. Pharmacopeia Dissolution Apparatus Type II (paddle type) is used, the controlled release lozenge is tested for dissolution in vitro at 100 rpm in 900 ml of simulated gastric fluid (pH about 1.2) at 37 °C. After less than 14% release of tianeptine monohydrate hemisulfate, after 7 hours released between 45% and 80% of tianeptine monohydrate hemisulfate, and at 16 hours, released more than 90% of tianeptine monohydrate hemisulfate is calculated by weight.
å¨å ¶ä»å ·é«å¯¦æ½ä¾ä¸ï¼ç¶ä»¥ç¾åè¥å ¸æº¶è§£åå¨ç¬¬IIå(æ§³å)å¨900mLçæ¬èæ¶²(pHç´1.2)ä¸ï¼å¨ç´37â 100rpmä¸ï¼ä½æ¼éé20%ä¹å»èæ®æ±å®æ°´åç¡«é ¸é¹½å¨2å°æå¾éæ¾ï¼ç´éé50%-80%ä¹å»èæ®æ±å®æ°´åç¡«é ¸é¹½å¨8å°æå¾éæ¾ï¼å¨14å°æå¾ï¼å¤§æ¼éé90%ä¹å»èæ®æ±å®æ°´åç¡«é ¸é¹½éæ¾åºä¾ãIn other embodiments, when the U.S. Pharmacopeia Dissolution Apparatus Type II (paddle type) is in 900 mL of the gastric fluid (pH about 1.2), at about 37 ° C, 100 rpm, less than 20% by weight of tianeptine Water hemisulfate is released after 2 hours, about 50%-80% by weight of tianeptine monohydrate hemisulfate is released after 8 hours, after 14 hours, more than 90% by weight of tianeptine monohydrate half Sulfate is released.
å¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼ç¶ç äººå£æè©²é åï¼è©²é å坿ä¾å»èæ®æ±ä¹å¹³åæå¤§è¡æ¼¿æ¿åº¦(Tmax )çä¸ä½æ¸æéç´çº2.5å°3å°æéãå¨å ·é«å¯¦æ½ä¾ä¸ï¼ç¶ç äººå£æè©²é åï¼è©²é åæä¾è¡æ¼¿æ¿åº¦æéæ²ç·ä¹æ²ç·ä¸å¹³åé¢ç©ç´çº1170å°1380ng.hr/mLã該é åå å«25mgåéä¹å»èæ®æ±ãIn some embodiments, when the patient takes the tablet orally, the tablet provides a median time to mean average plasma concentration ( Tmax ) of tianeptine of about 2.5 to 3 hours. In a particular embodiment, when the patient orally takes the tablet, the tablet provides an average area under the curve of the plasma concentration time curve of about 1170 to 1380 ng.hr/mL. The tablet contains a 25 mg dose of tianeptine.
å¨ä¸äºå ·é«å¯¦æ½ä¾ï¼å §å«å¨é åä¸ä¹ä¸ç¨®æå¤ç¨®æ§å¶éæ¾èåç©ï¼å ¶å å«çºç¶ç´ èåç©ï¼å¦ï¼ç¾¥ä¸ç²åºçºç¶ç´ ï¼ä½ä¸éæ¼æ¤ç¨®ãæ´é²ä¸æ¥ï¼ä¸ç¨®æå¤ç¨®æ§å¶éæ¾èåç©å å«ï¼ç¬¬ä¸ç¨®å ·æé»åº¦80å°120cps(2%水溶液)ä¹ç¾¥ä¸ç²åºçºç¶ç´ ï¼ä»¥å第äºç¨®å ·æé»åº¦3,000å°5,600cps(2%水溶液)ä¹ç¾¥ä¸ç²åºçºç¶ç´ ãå¨å ·é«å¯¦æ½ä¾ä¸ï¼ç¬¬ä¸ç¨®è第äºç¨®ç¾¥ä¸ç²åºçºç¶ç´ 乿¯ä¾ç´çº2:1å°4:1ãIn some embodiments, one or more controlled release polymers are included in the tablet comprising a cellulosic polymer such as, but not limited to, hydroxypropylmethylcellulose. Further, the one or more controlled release polymers comprise: a first hydroxypropylmethylcellulose having a viscosity of 80 to 120 cps (2% aqueous solution) and a second hydroxy having a viscosity of 3,000 to 5,600 cps (2% aqueous solution) Propyl methyl cellulose. In a particular embodiment, the ratio of the first to the second hydroxypropylmethylcellulose is from about 2:1 to about 4:1.
å¨ä¸äºå ·é«å¯¦æ½ä¾ä¸ï¼æ§å¶éæ¾åºè³ªé åæ´å å«ä¸ç¨®å¡«å åï¼å¦ï¼å¾®æ¶åçºç¶ç´ 該é åæ´å å«ä¸ç¨®è³¦å½¢åï¼å¦ï¼ç¡¬èé ¸éãå¨å ·é«å¯¦æ½ä¾ä¸ï¼è©²é åæ´å å«ç½é ¸è ãIn some embodiments, the controlled release matrix tablet further comprises a filler such as microcrystalline cellulose. The tablet further comprises an excipient such as magnesium stearate. In a particular embodiment, the tablet further comprises a phthalic acid gel.
æ¬ç¼æä¹å»èæ®æ±ç¡«é ¸é¹½é¡åå¯ä»¥æ¸æä¹è³æçºç¹å¾µï¼å¦ï¼TGAãDSVãDVAã宿¶Xå°ç·ç¹å°åæ¸ææä»»ä½ä¸ç¨®ãä»»ä½å ©ç¨®ãä»»ä½ä¸ç¨®ãä»»ä½å種ãä»»ä½äºç¨®ãä»»ä½å 種ãä»»ä½ä¸ç¨®ãä»»ä½å «ç¨®ãä»»ä½ä¹ç¨®ãä»»ä½å種æä»»ä½PXRD-2θè§å³°ä¹å®æ´æ¸æä»»ä½ä»¥ä¸æè¿°æé乿¸æåææè¡ä¹ä»»ä½çµåãThe type of tianeptine sulfate of the present invention can be characterized by data such as: TGA, DSV, DVA, single crystal X-ray diffractometer data or any one, any two, any three, any four, any Any combination of five, any six, any seven, any eight, any nine, any ten or any PXRD-2 theta peak or any combination of any of the above required data analysis techniques.
æ¬ç¼æäº¦éæ¼ä¸ç¨®æ°ç©å»èæ®æ±é¹½é ¸é¹½ãå»èæ®æ±é¹½é ¸é¹½ä¹ç¹æ§å¯è¢«æ¹åçºä¸ç¨®æå¤ç¨®å·²ç¥ä¹å»èæ®æ±å½¢å¼ï¼å¦ï¼å»èæ®æ±é游é¢é¹¼æå»èæ®æ±é(ç®åå»èæ®æ±å¯å¾ä¹å½¢å¼)ãé¹½é ¸é¹½å¯å å«ä½ä¸éæ¼ä»¥ä¸å¹¾ç¨®å½¢å¼ï¼æ°´åç©è溶ååç©ï¼ä»¥åæ¸ç¨®ä¸åé¢ååå»èæ®æ±èæ°¯ç¸å°é¢åä¹åå¸ç¶éæ¯çãæ¬ç¼æäº¦å å«å ¶ä»å»èæ®æ±é¹½é ¸é¹½ä¹é¡åï¼å¦ï¼å¤å½¢é«ãå ±æ¶é«èä¸å®å½¢é«ï¼ä½ä¸éæ¼ä»¥ä¸å¹¾ç¨®ãæ¬ç¼æäº¦æä¾å 嫿¤é¡ååç©ä¹æ°ç©é«è¥çµåç©ãè£½åæ¤é¡ååç©ä¹æ¹æ³èç¸éæ²»çæ¹æ³ãThe invention also relates to a novel tianeptine hydrochloride. The properties of tianeptine hydrochloride can be improved to one or more known forms of tianeptine, such as tianeptine sodium free base or tianeptine sodium (currently available in tianeptine) . Hydrochloride salts can include, but are not limited to, the following forms: hydrates and solvates, and the stoichiometric ratio of several different ionized tianeptine to chlorine counterions. The invention also encompasses other types of tianeptine hydrochloride, such as polymorphs, co-crystals and amorphous bodies, but is not limited to the above. The invention also provides novel pharmaceutical compositions comprising such compounds, methods of making such compounds, and related methods of treatment.
å¨å ·é«æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ãIn a particular embodiment, the invention comprises tianeptine hydrochloride.
å¨é²ä¸æ¥ä¹å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½å¯ä½µå ¥ä¸åé«è¥çµåç©ä¸ãå¨é²ä¸æ¥ä¹å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½å¯ä½µå ¥ä¸åæ§å¶éæ¾ä¹é«è¥çµåç©ãIn a further embodiment, tianeptine hydrochloride can be incorporated into a pharmaceutical composition. In further embodiments, tianeptine hydrochloride can be incorporated into a controlled release pharmaceutical composition.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½å¯ä½µå ¥ä¸åå å«å ©å±¤æå¤å±¤å»èæ®æ±é¹½é ¸é¹½ä¹é«è¥çµåç©ï¼ä½¿å¾å¨çç©é«å §å ¶ä¸ä¸å±¤è¼å¦ä¸å±¤å éæ¾ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½å¯ä½µå ¥ä¸åé«è¥çµåç©ä¸ï¼å ¶çºççï¼ä¸å ·æä¸åå è¡£ä¹ç¯åèæåï¼ä»¥ä½¿å¾å»èæ®æ±éæ¾ä¹æéå¯è¼ç®ååå¾ä¹å»èæ®æ±(å¦ï¼STABLON)ä¹éæ¾æéæ´é·ãIn another embodiment, tianeptine hydrochloride can be incorporated into a pharmaceutical composition comprising two or more layers of tianeptine hydrochloride such that one of the layers is released prior to the other in the living body. In another embodiment, tianeptine hydrochloride can be incorporated into a pharmaceutical composition which is in the form of a tablet and has a range and composition of different coatings such that the release time of tianeptine can be compared Currently obtained tianeptine (eg: STABLON) ) The release time is longer.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½å¯ä½µå ¥ä¸åé©å壿乿»²éæ§æ´»æ§ä¹é«è¥çµåç©ãæ»²éæ§æ´»æ§ä¹é«è¥çµåç©ãæ»²éæ³µã滲éè¥ç©ã滲éè¥ç©éæ¾èå ¶ä»é©å壿乿»²éæè¡å¯å å«ä½ä¸éæ¼OROSPush-PullèOROSä¸å±¤é«è¥çµåç©ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½å¯ä½µå ¥ä¸åOROSè¥ç©éæ¾ç³»çµ±ä¸ãé種å å«å»èæ®æ±é¹½é ¸é¹½çæ§å¶éæ¾é«è¥çµåç©ï¼å¦é©å壿乿»²éæ§æ´»æ§çé«è¥çµåç©ï¼å ¶æ²»çææå¯è¼ç®åé·å®ä¹å»èæ®æ±éé¹½æ´çºæä¹ ãIn another embodiment, tianeptine hydrochloride can be incorporated into a pharmaceutical composition suitable for oral osmotic activity. Permeable active pharmaceutical compositions, osmotic pumps, osmotic drugs, osmotic drug release and other suitable oral permeation techniques may include, but are not limited to, OROS Push-Pull and OROS Three-layer pharmaceutical composition. In another specific embodiment, tianeptine hydrochloride can be incorporated into an OROS In the drug delivery system. Such controlled release pharmaceutical compositions comprising tianeptine hydrochloride, such as pharmaceutical compositions suitable for oral osmotic activity, are more durable than the currently sold tianeptine sodium salt.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº7.23度æå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº9.91度æå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº14.53度æå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº7.23度è9.91度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº9.43度è14.53度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº7.23度è10.53度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº7.23度ã9.91度è14.53度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº9.43度ã10.53度ã14.53度è18.35度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº7.23度ã9.91度ã18.35度ã21.39度è23.93度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº9.91度ã14.53度ã18.35度è21.39度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº7.23度ã9.43度ã10.53度è18.35度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº9.43度ã9.91度ã10.53度ã14.53度è21.39度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº7.23度ã10.53度ã14.53度ã18.35度ã21.39度è23.93度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº7.23度ã9.43度ã9.91度ã10.53度ã14.53度ã18.35度ã21.39度è23.93度æåå å«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½ä¹PXRDç¹å°åèå5大é«ä¸ç¸ä¼¼ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨DSC溫度è¨éåä¸ï¼å ¶å¨ç´199âå å«ä¸åå¸ç±è½ç§»ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½ä¹DSC溫度è¨éåèå6大é«ä¸ç¸ä¼¼ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½ä¹TGA溫度è¨éåèå7大é«ä¸ç¸ä¼¼ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨ä¹ååè¸æ°£å¸é(DVS)ç¹æ§èå8大é«ä¸ç¸ä¼¼ãIn another specific embodiment, the invention comprises tianeptine hydrochloride. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt comprises a wave front at a 2-theta of about 7.23 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt comprises a wave front at a 2-theta of about 9.91 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt comprises a wave front at a 2-theta of about 14.53 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt comprises a wave front at a 2-axis of about 7.23 degrees and 9.91 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt comprises a wave front in each of 2-theta at about 9.43 degrees and 14.53 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt comprises a wave front in each of the 2-theta at about 7.23 degrees and 10.53 degrees in the PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride comprises a wave in the PXRD diffraction pattern at a time of 2-theta of about 7.23 degrees, 9.91 degrees, and 14.53 degrees. Front. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is in a PXRD diffraction pattern at a time of 2-theta of about 9.43 degrees, 10.53 degrees, 14.53 degrees, and 18.35 degrees. Contains a wave front. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt in the PXRD diffraction pattern is at about 2.23 degrees, 9.91 degrees, 18.35 degrees, 21.39 degrees, and 23.93 at 2-theta. Each time contains a wave front. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is in a PXRD diffraction pattern at a time of 2-theta of about 9.91 degrees, 14.53 degrees, 18.35 degrees, and 21.39 degrees. Contains a wave front. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is in a PXRD diffraction pattern at a time of 2-theta of about 7.23 degrees, 9.43 degrees, 10.53 degrees, and 18.35 degrees. Contains a wave front. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt in the PXRD diffraction pattern is about 9.43 degrees, 9.91 degrees, 10.53 degrees, 14.53 degrees, and 21.39 at 2-theta. Each time contains a wave front. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt in the PXRD diffraction pattern is at about 2.23 degrees, 10.53 degrees, 14.53 degrees, 18.35 degrees, 21.39 at 2-theta. The degree and the 23.93 degrees each contain a wave front. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt in the PXRD diffraction pattern is at about 2.23 degrees, 9.43 degrees, 9.91 degrees, 10.53 degrees, 14.53 at 2-theta. Degrees, 18.35 degrees, 21.39 degrees and 23.93 degrees each contain a wave front. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the PXRD diffraction pattern of the hydrochloride salt is substantially similar to that of Figure 5. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is in a DSC thermogram comprising an endothermic transfer at about 199 °C. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the DSC thermogram of the hydrochloride salt is substantially similar to that of Figure 6. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the TGA thermogram of the hydrochloride salt is substantially similar to that of Figure 7. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrous adsorption (DVS) characteristic of the hydrochloride salt is substantially similar to that of FIG.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½ä½µå ¥ä¸åæ§å¶éæ¾ä¹é«è¥çµåç©ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½çºé²æº¼çãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½çºé²æº¼çï¼å ¶ç¸å°æ¿åº¦ç´10%å°90%ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½çºé²æº¼çï¼å ¶ç¸å°æ¿åº¦ç´20%å°80%ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½çºé²æº¼çï¼å ¶ç¸å°æ¿åº¦ç´30%å°70%ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½çºå®å ¨ç©©å®çãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½çºå®å ¨ç©©å®çï¼å ¶ç¸å°æ¿åº¦ç´10%å°90%ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½çºå®å ¨ç©©å®çï¼å ¶ç¸å°æ¿åº¦ç´20%å°80%ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½çºå®å ¨ç©©å®çï¼å ¶ç¸å°æ¿åº¦ç´30%å°70%ãIn another specific embodiment, tianeptine hydrochloride is incorporated into a controlled release pharmaceutical composition. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is moisture resistant. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is moisture resistant and has a relative humidity of from about 10% to about 90%. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is moisture resistant and has a relative humidity of from about 20% to about 80%. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is moisture resistant and has a relative humidity of from about 30% to about 70%. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is completely stable. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is fully stable and has a relative humidity of from about 10% to about 90%. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is fully stable and has a relative humidity of from about 20% to about 80%. In another embodiment, the invention comprises tianeptine hydrochloride, wherein the hydrochloride salt is fully stable and has a relative humidity of from about 30% to about 70%.
便æ¬ç¼ææè¿°ï¼å»èæ®æ±é¹½é ¸é¹½å¯å ·æä¸åçé¢ååå»èæ®æ±(é½é¢å)å°æ°¯ç¸å°é¢å(é°é¢å)ä¹åå¸ç¶éæ¯çãä¾å¦ï¼é½é¢åï¼é°é¢å乿¯ä¾ç´çº1ï¼1æ2ï¼1ãAccording to the present invention, tianeptine hydrochloride may have a different stoichiometric ratio of ionized tianeptine (cation) to chlorine counter ion (anion). For example: the ratio of cation: anion is about 1:1 or 2:1.
æ¬ç¼æäº¦å æ¬å ¶ä»ä¹åå¸éæ¯çãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±é¹½é ¸é¹½åå ¶è£½é è使ç¨ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«ä¸ç¨®å»èæ®æ±é¹½é ¸é¹½ä¹æ°´åç©ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«ä¸ç¨®å»èæ®æ±é¹½é ¸é¹½ä¹æº¶ååç©ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«ä¸ç¨®æå¤ç¨®å»èæ®æ±é¹½é ¸é¹½ä¹å¤å½¢é«æä¸ç¨®æå¤ç¨®å»èæ®æ±é¹½é ¸é¹½çæ°´åç©ææº¶ååç©ä¹å¤å½¢é«ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«ä¸ç¨®å»èæ®æ±é¹½é ¸é¹½ä¹å ±æ¶é«ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«ä¸ç¨®å»èæ®æ±é¹½é ¸é¹½ä¹éå®åé«åå ¶è£½é è使ç¨ä¹æ¹æ³ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½é¡å¯çºå¦ç¡æ°´å½¢å¼ææº¶ååç©å½¢å¼ï¼ä½ä¸éæ¼ä»¥ä¸å½¢å¼ãè©²æ°´åææº¶ååç©ä¹å½¢å¼å ·æä¸åä¹é¢ååå»èæ®æ±å°æ°´ææº¶ååç©ååä¹åå¸ç¶éæ¯çï¼ç´å¦ï¼1ï¼1ã1ï¼1.5ã2ï¼1æ1ï¼2ï¼ä½ä¸éæ¼ä»¥ä¸æ¯ä¾ãThe invention also includes other chemical amount ratios. In another embodiment, the invention comprises tianeptine hydrochloride and its manufacture and use. In another embodiment, the invention comprises a hydrate of tianeptine hydrochloride. In another embodiment, the invention comprises a solvate of tianeptine hydrochloride. In another embodiment, the invention comprises one or more polymorphs of tianeptine hydrochloride or a hydrate or solvate polymorph of one or more tianeptine hydrochloride. In another embodiment, the invention comprises a co-crystal of tianeptine hydrochloride. In another embodiment, the invention comprises a non-shaped form of tianeptine hydrochloride and a method of making and using same. In another specific embodiment, the tianeptine hydrochloride salt may be in the form of, for example, an anhydrous form or a solvate, but is not limited to the above form. The hydrated or solvated form has a stoichiometric ratio of different ionized tianeptine to water or solvate molecules, such as: 1:1, 1:1.5, 2:1 or 1:2, but not Limited to the above ratio.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼ææä¾ä¸ç¨®è£½é å»èæ®æ±é¹½é ¸é¹½ä¹æ¹æ³ï¼å ¶å å«ï¼In another embodiment, the invention provides a method of making narnatine hydrochloride comprising:
(c)æä¾å»èæ®æ±æå ¶éé¹½ï¼ä»¥å(c) providing tianeptine or a sodium salt thereof;
(d)å°è©²å»èæ®æ±æå ¶éé¹½æ¥è§¸é¹½é ¸ï¼ä»¥ä½¿è©²å»èæ®æ±é¹½é ¸é¹½çµæ¶ã(d) contacting the tianeptine or a sodium salt thereof with hydrochloric acid to crystallize the tianeptine hydrochloride.
å¨ä¸ç¹å®å¯¦æ½ä¾ä¸ï¼è©²å»èæ®æ±çºé鹽形å¼ãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼å¨é¹½é ¸èçåï¼å å å ¥ä¸ç¨®æº¶åè³è©²å»èæ®æ±æå ¶éé¹½ä¸ãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼æ¥é©(b)çºå¨æº¶ååå¨ä¸å®æï¼ä½¿å¾ä¸ç¨®æº¶æ¶²å¨é¹½é ¸é¹½çµæ¶åå½¢æãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼æ¥é©(b)çºå¨æº¶ååå¨ä¸å®æï¼ä½¿å¾ä¸ç¨®æ¸æµ®æ¶²å¨é¹½é ¸é¹½çµæ¶åå½¢æã卿äºå¯¦æ½ä¾ä¸ï¼ä¸ç¨®æº¶åä¿é¸èªæ¼ä»¥ä¸ç¾¤çµï¼å ¶å å«ï¼ä¸é ®ãä¹éãç¡ç²ç·ãç²éãä¹è ãäºæ°¯ç²ç·ãæ°´èåæ°«åå(THF)ãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼ä¸ç¨®æº¶åå å«ä¸ç¨®ä»»å ©ç¨®æå¤ç¨®æº¶å乿··åç©ï¼å ¶å å«ä½ä¸éæ¼ä¸é ®ãä¹éãç¡ç²ç·ãç²éãä¹è ãäºæ°¯ç²ç·ãæ°´èåæ°«ååãIn a particular embodiment, the tianeptine is in the form of a sodium salt. In another embodiment, a solvent is added to the tianeptine or its sodium salt prior to the hydrochloric acid treatment. In another embodiment, step (b) is carried out in the presence of a solvent such that a solution is formed prior to crystallization of the hydrochloride salt. In another embodiment, step (b) is carried out in the presence of a solvent such that a suspension is formed prior to crystallization of the hydrochloride salt. In certain embodiments, a solvent is selected from the group consisting of acetone, ethanol, methyl nitrate, methanol, acetonitrile, dichloromethane, water, and tetrahydrofuran (THF). In another embodiment, a solvent comprises a mixture of any two or more solvents including, but not limited to, acetone, ethanol, methyl nitrate, methanol, acetonitrile, dichloromethane, water, and tetrahydrofuran.
å»èæ®æ±èªç±é¹¼èå»èæ®æ±éå¯ä»¥ä¸ç¨®æå¤ç¨®æ¤é å乿¹æ³è£½åï¼å å«ä½ä¸éæ¼ç¾åå°å©ç¬¬3,758,528èä¸ä¹æ¹æ³ãThe tianeptine free base and tianeptine sodium can be prepared by one or more methods in the art, including, but not limited to, the method of U.S. Patent No. 3,758,528.
卿¬ç¼æä¹å ·é«å¯¦æ½ä¾ä¸ï¼åºä¹³é¡å£æä¸èª¿æ´åºä¹³é¡ççæ©è½è/ææ²»çåºä¹³é¡ä¹ææéçå»èæ®æ±é¹½é ¸é¹½ãå¨åéé¨åï¼å£æä¹å»èæ®æ±é¹½é ¸é¹½ï¼å ¶åé足以影é¿åºä¹³é¡çççæ©è½è/ææ²»çç調ç¯ãIn a particular embodiment of the invention, the mammal is orally administered with an effective amount of tianeptine hydrochloride which modulates the physiological function of the mammal and/or treats the mammal. In the dosage portion, oral tianeptine hydrochloride is administered at a dose sufficient to affect the modulation of physiological functions and/or treatment of the mammal.
å¨å¦ä¸å¯¦æ½ä¾ä¸ï¼æä¾ä¸ç¨®æ²»çç½¹æ£æé¬±ççåºä¹³é¡ä¹æ¹æ³ï¼å ¶å å«çµ¦è©²åºä¹³é¡æç¨ä¸åææåéä¹å»èæ®æ±é¹½é ¸é¹½ãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼æä¾ä¸ç¨®æ²»çç½¹æ£åæ¿æ§è ¸çå群çåºä¹³é¡ä¹æ¹æ³ï¼å ¶å å«çµ¦è©²åºä¹³é¡æç¨ä¸åææåéä¹å»èæ®æ±é¹½é ¸é¹½ãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼æä¾ä¸ç¨®æ²»çç½¹æ£æ³¨æåä¸è¶³éåççåºä¹³é¡ä¹æ¹æ³ï¼å ¶å å«çµ¦è©²åºä¹³é¡æç¨ä¸åææåéä¹å»èæ®æ±é¹½é ¸é¹½ãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼æä¾ä¸ç¨®æ²»çç½¹æ£æ°£åçåºä¹³é¡ä¹æ¹æ³ï¼å ¶å å«çµ¦è©²åºä¹³é¡æç¨ä¸åææåéä¹å»èæ®æ±é¹½é ¸é¹½ãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼è©²åºä¹³é¡çºäººé¡ãIn another embodiment, a method of treating a mammal suffering from depression comprising administering to the mammal an effective amount of tianeptine hydrochloride is provided. In another embodiment, a method of treating a mammal suffering from irritable bowel syndrome comprising administering to the mammal an effective amount of tianeptine hydrochloride is provided. In another embodiment, a method of treating a mammal suffering from attention deficit hyperactivity disorder comprising administering to the mammal an effective amount of tianeptine hydrochloride is provided. In another embodiment, a method of treating a mammal suffering from asthma comprising administering an effective amount of tianeptine hydrochloride to the mammal is provided. In another embodiment, the mammal is a human.
å¨å¦ä¸å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«ä¸ç¨®å å«å»èæ®æ±é¹½é ¸é¹½ä¹è¥åç製åã該è¥åå¯ç¨æ¼æ²»çæé¬±çãåæ¿æ§è ¸çåç¾¤ãæ³¨æåä¸è¶³éåçææ°£åï¼ä¸¦ç¨æ¼éè¦è©²æ²»çä¹åºä¹³é¡ä¸ãå¨å¦ä¸å¯¦æ½ä¾ä¸ï¼è©²åºä¹³é¡çºäººé¡ãIn another embodiment, the invention comprises the preparation of a medicament comprising tianeptine hydrochloride. The medicament can be used to treat depression, irritable bowel syndrome, attention deficit hyperactivity disorder or asthma, and is used in mammals in need of such treatment. In another embodiment, the mammal is a human.
å»èæ®æ±é¹½é ¸é¹½ä¹é«è¥ååå¯ä»¥å¹¾ç¨®æ¹å¼æç¨ï¼å ¶å å«ä½ä¸éæ¼å£æã壿é«è¥çµåç©èååçºç¤ºç¯ååã壿ååå¯è¦éè¦çºåºæ ååï¼å¦ï¼é åãæ©¢åå½¢è¥é ã硬æè è åãæ¾±ç²è åãç¾¥ä¸åºç²åºçºç¶ç´ (HPMC)è åæè»ä¸å½æ§çæè è åãæ¬ç¼æäº¦æä¾æ¶²æ ååï¼å å«ä½ä¸éæ¼æ¸æµ®æ¶²ã溶液ãç³æ¼¿æä¹³åãThe pharmaceutical dosage form of tianeptine hydrochloride can be administered in several ways including, but not limited to, oral. Oral pharmaceutical compositions and dosage forms are exemplary dosage forms. Oral dosage forms may be in the form of solid dosage forms such as lozenges, ellipses, hard gelatin capsules, starch capsules, hydroxypropyl methylcellulose (HPMC) capsules or soft and flexible gelatin capsules. The invention also provides liquid dosage forms including, but not limited to, suspensions, solutions, syrups or emulsions.
å»èæ®æ±é¹½é ¸é¹½ä»¥æ§å¶æå»¶é²éæ¾æ¹æ³æç¨ãéæ¾æ§å¶é«è¥ç¢åé常æç¸åçç®æ¨ï¼å³èç±å ¶éæ¾éæ§å¶çå°æé«é¨å便¹åè¥ç©çæ²»çãå¨é«è¥æ²»çä¸ï¼ä¸ç¨®çæ³è¨è¨çéæ¾æ§å¶è£½åä¹ç¹é»çºä½¿ç¨æå°çAPI(æ´»æ§é«è¥æå)ç©è³ªæ²»çææ§å¶ç æ ï¼ä¸å¨æççæéå §éæéæ¾æ§å¶é«è¥çµåç©ä¹åªé»éå¸¸å æ¬ï¼(1)APIæ´»æ§ä¹å»¶é²ï¼(2)éä½æè¥æ¬¡æ¸ï¼(3)å¢å ç 人ä¹é ææ§ï¼(4)總API使ç¨è¼å°ï¼(5)éä½å±é¨æå ¨èº«æ§çå¯ä½ç¨ï¼(6)æ¸å°APIçç´¯ç©ï¼(7)æ¸å°è¡ä¸æ¿åº¦ä¹æ³¢åï¼(8)æ¹åæ²»ç乿åï¼(9)æ¸å°APIæ´»æ§ä¹ç¸ä¹ä½ç¨ææå¤±ï¼è(10)æ¹åç¾ç æçæ æ§å¶çé度(Kim,Cherng-ju,Controlled Release Dosage Form Design,2 Technomic Publishing,Lancaster,Pa.: 2000)ãThe tianeptine hydrochloride is administered as a controlled or delayed release method. Release Control Pharmaceutical products generally have the same goal of improving the treatment of drugs by releasing uncontrolled counterpart portions. In medical treatment, an ideally designed release control preparation is characterized by the use of minimal API (active pharmaceutical ingredient) substances to treat or control the condition, and the advantages of achieving release control pharmaceutical compositions in the shortest time usually include: (1) Delay in API activity; (2) reduce the number of doses; (3) increase patient compliance; (4) use less total API; (5) reduce local or systemic side effects; (6) reduce API accumulation; 7) reduce fluctuations in blood concentration; (8) improve the efficacy of treatment; (9) reduce the multiplication or loss of API activity; and (10) improve the speed of disease or state control (Kim, Cherng-ju, Controlled Release) Dosage Form Design, 2 Technomic Publishing, Lancaster, Pa.: 2000).
æ¬ç¼æä¹ä»£è¡¨æ§æ¯æ¥åéçºç´å å«10.0mgå°50.0mgã12.5mgå°37.5mgæ25.0mgå°37.5mgä¹å»èæ®æ±é¹½é ¸é¹½ãæ¬ç¼ææè¿°ä¹åé表示å»èæ®æ±èªç±é¹¼ä¹åéï¼ä¸¦ä¸å å«ç¸å°é¢å(å¦ï¼æ°¯)æä»»ä½æ°´è溶åååä¹ééãA representative daily dose of the invention is about 10.0 mg to 50.0 mg, 12.5 mg to 37.5 mg or 25.0 mg to 37.5 mg of tianeptine hydrochloride. The doses described herein represent the dose of tianeptine free base and do not contain relative ions (e.g., chlorine) or any weight of water and solvent molecules.
卿¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼çµ¦äºå£ææéåéçä¸ç¨®å«å»èæ®æ±é¹½é ¸é¹½çé«è¥çµåç©ï¼å ¶åéç´çºå¾10.0mgå°50.0mgã12.5mgå°50.0mgã25.0mgå°50.0mgæ37.5mgå°50mgä¹å»èæ®æ±ãä¾å¦ï¼ç´12.5mgï¼25.0mgæ37.5mgãå¨ç¹å®å¯¦æ½ä¾ä¸ï¼å¯ä»¥çµ¦äºå£æå å«å»èæ®æ±é¹½é ¸é¹½çé«è¥çµåç©ç´25.0mgæ37.5mgã該åéå¯å®æ¬¡æå次æäºã卿¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å å«å»èæ®æ±é¹½é ¸é¹½ä¹é«è¥çµåç©çæ¯æ¥åéæé«ç´çº50.0mgçå»èæ®æ±ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æä¿éæ¼å å«å¦æ¬ææè¿°ä¹å»èæ®æ±é¹½é ¸é¹½ççµåç©ï¼ä»¥åé©ååºä¹³é¡å£æä¹ä¸ç¨®æå¤ç¨®ç¨éåãè¼é«è/æè³¦å½¢åï¼ä»¥æ²»çæé é²ä¸ç¨®æå¤ç¨®æ¬ææè¿°ä¹çæ ãå¨å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±é¹½é ¸é¹½ä¹éæ¾æ§å¶é«è¥çµåç©èå ¶ä»å«å»èæ®æ±ä¸åå½¢å¼çé«è¥çµåç©ç¸æ¯ï¼å ¶éè¦ä¸è¼ä¸è¤éä¹è³¦å½¢åæ··åç©ãIn another embodiment of the present invention, a pharmaceutical composition comprising tianeptine hydrochloride in a dose required for oral administration is administered at a dose of from about 10.0 mg to 50.0 mg, from 12.5 mg to 50.0 mg, and from 25.0 mg. To 50.0 mg or 37.5 mg to 50 mg of tianeptine. For example: about 12.5 mg, 25.0 mg or 37.5 mg. In a particular embodiment, a pharmaceutical composition comprising narnatine hydrochloride can be administered orally in an amount of about 25.0 mg or 37.5 mg. This dose can be administered in a single or divided dose. In another embodiment of the invention, the daily dose of the pharmaceutical composition comprising tianeptine hydrochloride is about 50.0 mg of tianeptine. In another embodiment, the invention relates to a composition comprising tianeptine hydrochloride as described herein, and one or more diluents, carriers and/or excipients suitable for oral administration to mammals for treatment Or preventing one or more of the conditions described herein. In a particular embodiment, the release control pharmaceutical composition of tianeptine hydrochloride requires a less complex mixture of excipients than other pharmaceutical compositions containing different forms of tianeptine.
æ¬ç¼æä¹å»èæ®æ±é¹½é ¸é¹½é¤äºä¸è¿°ä¹å£æååï¼äº¦å¯ç¨æ¼è£½åå ¶ä»é«è¥ååï¼å¦ï¼å±é¨ååãé壿ååãç¶ç®ååèé»èååã該ååèä¾å¦ä¸ï¼ä¹³æ²¹ãæ´åãæº¶æ¶²ãæ¸æµ®æ¶²ã乳液ãè»èãç²æ«ãè²¼åèæ åçãThe tianeptine hydrochloride of the present invention can be used for the preparation of other pharmaceutical dosage forms in addition to the above oral dosage forms, such as topical dosage forms, parenteral dosage forms, transdermal dosage forms and mucosal dosage forms. Examples of such dosage forms are as follows: emulsifiable concentrates, lotions, solutions, suspensions, lotions, ointments, powders, patches, suppositories, and the like.
æ¬ç¼æä¹å»èæ®æ±ç¡«é ¸é¹½é¡åå¯ä»¥æ¸æä¹è³æçºç¹å¾µï¼å¦ï¼TGAãDSVãDVAã宿¶Xå°ç·ç¹å°åæ¸ææä»»ä½ä¸ç¨®ãä»»ä½å ©ç¨®ãä»»ä½ä¸ç¨®ãä»»ä½å種ãä»»ä½äºç¨®ãä»»ä½å 種ãä»»ä½ä¸ç¨®ãä»»ä½å «ç¨®ãä»»ä½ä¹ç¨®ãä»»ä½å種æä»»ä½PXRD-2θè§å³°ä¹å®æ´æ¸èä»»ä½ä»¥ä¸æè¿°æé乿¸æåææè¡ä¹ä»»ä½çµåãThe type of tianeptine sulfate of the present invention can be characterized by data such as: TGA, DSV, DVA, single crystal X-ray diffractometer data or any one, any two, any three, any four, any Any combination of five, any six, any seven, any eight, any nine, any ten or any PXRD-2 theta peaks and any of the above required data analysis techniques.
æ¬ç¼æä¿éæ¼ä¸ç¨®æ°ç©ä¹å»èæ®æ±ç£·é ¸é¹½ãç¸è¼æ¼ä¸ç¨®æå¤ç¨®å·²ç¥ä¹å»èæ®æ±é¡åï¼å¯æ¹è¯å»èæ®æ±ç£·é ¸é¹½ä¹ç¹æ§ï¼å¦ï¼å»èæ®æ±èªç±é¹¼æå»èæ®æ±é(ç®åå»èæ®æ±å¯å¾ä¹é¡å)ãè©²ç£·é ¸é¹½å¯å å«ä»¥ä¸å¹¾ç¨®é¡åï¼æ°´åç©è溶ååç©ï¼ä»¥åæ¸ç¨®ä¸åé¢ååå»èæ®æ±èæ°¯ç¸å°é¢åä¹åå¸è¨éæ¯çï¼ä½ä¸éæ¼ä»¥ä¸å¹¾ç¨®æ¬ç¼æäº¦å å«å ¶ä»å»èæ®æ±ç£·é ¸é¹½ä¹é¡åï¼å ¶å å«ä½ä¸éæ¼åç´ ç°å½¢é«ãå ±çµæ¶èéæ¶åé¡ãæ¬ç¼æäº¦æä¾å 嫿¤é¡ååç©ä¹æ°ç©é«è¥çµåç©ãè£½åæ¤é¡ååç©ä¹æ¹æ³èç¸éæ²»çæ¹æ³ãThis invention relates to a novel tianeptine phosphate. Compared to one or more known tianeptine types, the properties of tianeptine phosphate can be improved, such as tianeptine free base or tianeptine sodium (currently available from tianeptine) . The phosphate may comprise the following types: hydrates and solvates, and stoichiometric ratios of several different ionized tianeptine to chlorine counter ions, but are not limited to the above. The invention also includes other tian naproxes. Types of phosphonates, including but not limited to allotropes, co-crystals, and amorphous forms. The invention also provides novel pharmaceutical compositions comprising such compounds, methods of making such compounds, and related methods of treatment.
å¨å ·é«æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ãIn a particular embodiment, the invention comprises tianeptine phosphate.
å¨é²ä¸æ¥ä¹å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç£·é ¸é¹½å¯ä½µå ¥ä¸åé«è¥çµåç©ä¸ãå¨é²ä¸æ¥ä¹å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç£·é ¸é¹½å¯ä½µå ¥ä¸åéæ¾æ§å¶ä¹é«è¥çµåç©ãIn further embodiments, tianeptine phosphate can be incorporated into a pharmaceutical composition. In a further embodiment, the tianeptine phosphate can be incorporated into a release controlled pharmaceutical composition.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç£·é ¸é¹½å¯ä½µå ¥ä¸åå å«å ©å±¤æå¤å±¤å»èæ®æ±ç£·é ¸é¹½ä¹é«è¥é§åç©ï¼å¨çç©é«å §å ¶ä¸ä¸å±¤è¼å¦ä¸å±¤å éæ¾ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç£·é ¸é¹½å¯ä½µå ¥ä¸åé«è¥çµåç©ä¸ï¼å ¶çºççï¼ä¸å ·æä¸åå è¡£ä¹ç¯åèæåï¼ä»¥ä½¿å¾å»èæ®æ±éæ¾ä¹æéå¯è¼ç®ååå¾ä¹å»èæ®æ±(å¦ï¼STABLON)ä¹éæ¾æéæ´é·ãIn another embodiment, the tianeptine phosphate can be incorporated into a pharmaceutical composition comprising two or more layers of tianeptine phosphate in which one layer is released prior to the other. In another embodiment, the tianeptine phosphate can be incorporated into a pharmaceutical composition that is in the form of a tablet and has a range and composition of different coatings such that the release of tianeptine can be compared to current The tianeptine obtained (eg: STABLON) ) The release time is longer.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç£·é ¸é¹½å¯ä½µå ¥ä¸åå ·æ»²éæ´»æ§ä¹é«è¥çµåç©ä¸ï¼å ¶é©åå£æãæ»²éæ§æ´»æ§ä¹é«è¥çµåç©ãæ»²éæ³µã滲éè¥ç©ã滲éè¥ç©éæ¾èå ¶ä»é©å壿乿»²éæè¡å¯å å«ä½ä¸éæ¼OROSPush-PullèOROSä¸å±¤é«è¥çµåç©ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç£·é ¸é¹½å¯ä½µå ¥ä¸åOROSè¥ç©éæ¾ç³»çµ±ä¸ãå å«å»èæ®æ±ç£·é ¸é¹½çæ§å¶éæ¾é«è¥çµåç©ï¼å¦ï¼é©å壿ä¹å ·æ»²éæ´»æ§çé«è¥çµåç©ï¼ä½¿å ¶æ²»çææå¯è¼ç®åé·å®ä¹å»èæ®æ±éé¹½æ´çºæä¹ ãIn another embodiment, the tianeptine phosphate can be incorporated into an osmotically active pharmaceutical composition suitable for oral administration. Permeable active pharmaceutical compositions, osmotic pumps, osmotic drugs, osmotic drug release and other suitable oral permeation techniques may include, but are not limited to, OROS Push-Pull and OROS Three-layer pharmaceutical composition. In another embodiment, the tianeptine phosphate can be incorporated into an OROS In the drug delivery system. A controlled release pharmaceutical composition comprising tianeptine phosphate, such as an osmotically active pharmaceutical composition suitable for oral administration, provides a longer lasting therapeutic effect than the currently sold tianeptine sodium salt.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº6.83度æå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº9.27度æå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº11.95度æå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº6.83度è9.27度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²é¹½é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº11.95度è13.53度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº16.31度è17.35度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº6.83度ã11.95度è13.53度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº16.31度ã17.35度ã18.47度è20.93度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº6.83度ã9.27度ã11.95度ã13.53度è16.31度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº20.93度ã21.49度ã22.77度è23.67度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº6.83度ã13.83度ã17.35度è18.47度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº9.27度ã11.95度ã13.53度ã16.31度è18.47度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº6.83度ã11.95度ã16.31度ã17.35度ã20.93度è22.77度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨PXRDç¹å°åä¸ï¼å¨2-θç´çº6.83度ã9.27度ã11.95度ã13.53度ã13.83度ã15.93度ã16.31度ã17.35度ã18.47度ã20.93度ã21.49度ã22.77度è23.67度æåå«ä¸åæ³¢éãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½ä¹PXRDç¹å°åèå9大é«ä¸ç¸ä¼¼ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨DSC溫度è¨éåä¸ï¼å ¶å¨ç´211âå å«ä¸åå¸ç±è½ç§»ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½ä¹DSC溫度è¨éåèå10大é«ä¸ç¸ä¼¼ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½ä¹TGA溫度è¨éåèå11大é«ä¸ç¸ä¼¼ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå å«å»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸è©²ç£·é ¸é¹½å¨ä¹ååè¸æ°£å¸é(DVS)ç¹æ§èå12大é«ä¸ç¸ä¼¼ãIn another embodiment, the invention comprises tianeptine phosphate. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate contains a wave front at a 2-axis of about 6.83 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine phosphate wherein the phosphate contains a wave front at a 2-axis of about 9.27 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate comprises a wave front at a 2-axis of about 11.95 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate comprises a wave front at a 2-axis of about 6.83 degrees and 9.27 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine phosphate, wherein the hydrochloride salt has a wave front in the PXRD diffraction pattern at 2-theta of about 11.95 degrees and 13.53 degrees. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate comprises a wave front in the PXRD diffraction pattern at 2-theta of about 16.31 degrees and 17.35 degrees. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate comprises a wave front at each of 2-theta at about 6.83 degrees, 11.95 degrees, and 13.53 degrees in a PXRD diffraction pattern. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate comprises one in each of the 2-theta at about 16.31 degrees, 17.35 degrees, 18.47 degrees, and 20.93 degrees in the PXRD diffraction pattern. Wave front. In another embodiment, the invention comprises tianeptine phosphate wherein the phosphate is in the PXRD diffraction pattern at about 2.83 degrees, 9.27 degrees, 11.95 degrees, 13.53 degrees, and 16.31 degrees at 2-theta. Each contains a wave front. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate comprises one in each of the 2-theta at about 20.93 degrees, 21.49 degrees, 22.77 degrees, and 23.67 degrees in the PXRD diffraction pattern. Wave front. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate comprises one in each of the 2-theta at about 6.83 degrees, 13.83 degrees, 17.35 degrees, and 18.47 degrees in the PXRD diffraction pattern. Wave front. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate is in the PXRD diffraction pattern at a time of 2-theta of about 9.27 degrees, 11.95 degrees, 13.53 degrees, 16.31 degrees, and 18.47 degrees. Each contains a wave front. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate is in the PXRD diffraction pattern at about 2.83 degrees, 11.95 degrees, 16.31 degrees, 17.35 degrees, 20.93 degrees at 2-theta At 22.77 degrees each contains a wave front. In another embodiment, the invention comprises tianeptine phosphate, wherein the phosphate is in the PXRD diffraction pattern at about 2.83 degrees, 9.27 degrees, 11.95 degrees, 13.53 degrees, 13.83 degrees at 2-theta, 15.93 degrees, 16.31 degrees, 17.35 degrees, 18.47 degrees, 20.93 degrees, 21.49 degrees, 22.77 degrees and 23.67 degrees each contain a wave front. In another embodiment, the invention comprises tianeptine phosphate, wherein the PXRD diffraction pattern of the phosphate is substantially similar to that of FIG. In another embodiment, the invention comprises tianeptine phosphate wherein the phosphate comprises an endothermic transfer at about 211 ° C in a DSC thermogram. In another embodiment, the invention comprises tianeptine phosphate wherein the DSC temperature record of the phosphate is substantially similar to that of FIG. In another embodiment, the invention comprises tianeptine phosphate, wherein the TGA temperature record of the phosphate is substantially similar to that of FIG. In another embodiment, the invention comprises tianeptine phosphate wherein the phosphate has a dynamic vapor sorption (DVS) characteristic substantially similar to that of FIG.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å»èæ®æ±ç£·é ¸é¹½ä½µå ¥ä¸åæ§å¶éæ¾ä¹é«è¥çµåç©ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸ç£·é ¸é¹½æ¯å®å ¨ç©©å®çãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸ç£·é ¸é¹½å¨ç´10%å·¦å³çç¸å°æ¿åº¦å°ç´90%å·¦å³çç¸å°æ¿åº¦ä¸æ¯å®å ¨ç©©å®çãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸ç£·é ¸é¹½å¨ç´20%å·¦å³çç¸å°æ¿åº¦å°ç´80%å·¦å³çç¸å°æ¿åº¦ä¸æ¯å®å ¨ç©©å®çãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬ä¸åå»èæ®æ±ç£·é ¸é¹½ï¼å ¶ä¸ç£·é ¸é¹½å¨ç´30%å·¦å³çç¸å°æ¿åº¦å°ç´70%å·¦å³çç¸å°æ¿åº¦ä¸æ¯å®å ¨ç©©å®çãIn another specific embodiment, the tianeptine phosphate is incorporated into a controlled release pharmaceutical composition. In another embodiment, the invention includes a tianeptine phosphate wherein the phosphate is fully stable. In another embodiment, the invention includes a tianeptine phosphate wherein the phosphate is fully stable at a relative humidity of from about 10% to about 90% relative humidity. In another embodiment, the invention includes a tianeptine phosphate wherein the phosphate is fully stable at a relative humidity of from about 20% to about 80% relative humidity. In another embodiment, the invention includes a tianeptine phosphate wherein the phosphate is completely stable at a relative humidity of from about 30% to about 70% relative humidity.
æ ¹ææ¬ç¼æï¼å»èæ®æ±ç£·é ¸é¹½å¯æä¸åçé¢ååå»èæ®æ±(é½é¢å)å°ç£·é ¸é¹½ç¸å°é¢å(é°é¢å)çåå¸ç¶éæ¯ãé½é¢åï¼è² é¢åçæ¯çå¯çº1:1æ2:1ãå ¶ä»çç¶éæ¯çä¹å æ¬æ¼æ¬ç¼æä¸ãAccording to the present invention, tianeptine phosphate may have a different stoichiometric ratio of ionized tianeptine (cation) to phosphate relative ion (anion). Cation: The ratio of negative ions can be 1:1 or 2:1. Other equivalent ratios are also included in the present invention.
å¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±ç£·é ¸é¹½åå ¶è£½åè使ç¨çæ¹æ³ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå æ¬äºå»èæ®æ±ç£·é ¸é¹½çæ°´åç©åå ¶è£½åè使ç¨çæ¹æ³ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå æ¬äºçå»èæ®æ±ç£·é ¸é¹½ç溶ååç©ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æç±ä¸åæå¤åå»èæ®æ±ç£·é ¸é¹½å¤å½¢é«ï¼æä¸åæå¤åå¤å»èæ®æ±ç£·é ¸é¹½æ°´åç©ææº¶ååç©çå¤å½¢é«ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æå æ¬å»èæ®æ±ç£·é ¸é¹½çå ±æ¶é«ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¬ç¼æå æ¬å»èæ®æ±ç£·é ¸é¹½ä¹ç¡å®å½¢é«åå ¶è£½åè使ç¨çæ¹æ³ãIn another embodiment, the invention includes tianeptine phosphate and methods of making and using same. In another specific embodiment, the invention includes hydrates of tianeptine phosphate and methods of making and using same. In another embodiment, the invention includes a solvate of tianeptine phosphate. In another embodiment, the invention consists of one or more tianeptine phosphate polymorphs, or one or more polymorphs of domiodapline phosphate hydrate or solvate. In another embodiment, the invention includes a co-crystal of tianeptine phosphate. In another embodiment, the invention includes an amorphous form of tianeptine phosphate and methods of making and using same.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼ä¸å»èæ®æ±ç£·é ¸é¹½å½¢å¼å¯ä»¥å卿¼ï¼ä¾å¦ï¼ä½ä¸éæ¼ï¼ä¸ç¡æ°´å½¢å¼ï¼ä¸æ°´åç©å½¢å¼ï¼ä¸è«æ°´å½¢å¼æä¸æº¶ååç©çå½¢å¼ãé種水åç©å溶ååç©å½¢å¼å¯æä¸åå»èæ®æ±é¢åæ¯ä¸æ°´ææº¶ååç©ååçåå¸ç¶éï¼ä¾å¦ï¼ä½ä¸éæ¼ç´1:1ï¼1:1.5ï¼2:1æ1:2ãIn another embodiment, a tianeptine phosphate form may be present, for example, but not limited to, in the form of an anhydrous form, a monohydrate form, a dehydrated form or a monosolvate. Such hydrate and solvate forms may have different stoichiometric equivalents of the tianeptine ion to the water or solvate molecule, such as, but not limited to, about 1:1, 1:1.5, 2:1 or 1:2.
å¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æ¬ç¼ææä¾äºä¸è£½åå»èæ®æ±ç£·é ¸é¹½çæ¹æ³ï¼å æ¬ï¼In another embodiment, the invention provides a method of preparing tianeptine phosphate, comprising:
(e)æä¾å»èæ®æ±æå ¶éé¹½ï¼å(e) providing tianeptine or a sodium salt thereof;
(f)å»èæ®æ±æå ¶éé¹½èç£·é ¸ä½ç¨ï¼ä»¥å½¢æçµæ¶åçå»èæ®æ±ç£·é ¸é¹½ã(f) The tianeptine or its sodium salt acts with phosphoric acid to form a crystallized tianeptine phosphate.
å¨ä¸åç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼å ¶ä¸å»èæ®æ±çå½¢å¼çºéé¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æ¼å å ¥é¹½é ¸åå å°ä¸æº¶åæ·»å å°å»èæ®æ±æå ¶éé¹½ä¸ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ä¸ï¼å¨æº¶ååå¨ä¸å®ææ¥é©(b)ï¼ä½¿å¾è©²ç£·é ¸é¹½çµæ¶åæå½¢ææº¶æ¶²ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ä¸ï¼å¨æº¶ååå¨ä¸å®ææ¥é©(b)ï¼ä½¿å¾è©²ç£·é ¸é¹½çµæ¶åæå½¢ææ¸æµ®æ¶²ã卿äºå ·é«å¯¦æ½ä¾ä¸ï¼æº¶åæ¯é¸èªç±ï¼ä¸é ®ï¼ä¹éï¼ç¡åºç²ç·ï¼ç²éï¼ä¹è ï¼äºæ°¯ç²ç·ï¼æ°´ååæ°«åå(THF)æçµæç群çµãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼ä¸æº¶åå¯çºä»»ä½å ©åæå ©å以䏿º¶åæå½¢æçæ··åç©ï¼å ¶å æ¬ä½ä¸éæ¼ä¸é ®ï¼ä¹éï¼ç¡åºç²ç·ï¼ç²éï¼ä¹è ï¼äºæ°¯ç²ç·ï¼æ°´ååæ°«ååãIn a specific embodiment, wherein the form of tianeptine is a sodium salt. In another embodiment, a solvent is added to the tianeptine or its sodium salt prior to the addition of hydrochloric acid. In another specific embodiment, step (b) is carried out in the presence of a solvent such that the solution forms a solution prior to crystallization of the phosphate. In another specific embodiment, step (b) is carried out in the presence of a solvent such that the phosphate forms a suspension prior to crystallization. In certain embodiments, the solvent is selected from the group consisting of: acetone, ethanol, nitromethane, methanol, acetonitrile, dichloromethane, water, and tetrahydrofuran (THF). In another embodiment, a solvent can be a mixture of any two or more solvents including, but not limited to, acetone, ethanol, nitromethane, methanol, acetonitrile, dichloromethane, water, and tetrahydrofuran.
å»èæ®æ±èªç±é¹¼åå»èæ®æ±é坿¼æè¡é åä¸å¯ç²å¾çä¸åæå¤åæ¹æ³ä¾è£½åï¼å ¶å æ¬ä½ä¸éæ¼ç¾åå°å©ç¬¬3,758,528èçæ¹æ³ãThe tianeptine free base and tianeptine sodium can be prepared by one or more methods available in the art including, but not limited to, the method of U.S. Patent No. 3,758,528.
卿¬ç¼æçä¸åå ·é«å¯¦æ½ä¾ä¸ï¼ä¸å¯èª¿ç¯åºä¹³åç©çççå/ææ²»çåºä¹³åç©ææéçå»èæ®æ±ç£·é ¸é¹½è¢«æ½äºè³æè¿°åºä¹³åç©ãå¨å¦ä¸æ¹é¢ï¼æ½äºè¶³ä»¥å½±é¿èª¿ç¯åºä¹³åç©çççå/ææ²»ççææéå»èæ®æ±ç£·é ¸é¹½ãIn a specific embodiment of the invention, an physiologic and/or therapeutically effective amount of tianeptine phosphate in a mammal is administered to the mammal. In another aspect, an effective amount of tianeptine phosphate is administered sufficient to affect modulating the physiology and/or treatment of the mammal.
å¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æä¾ä¸ç¨®æ²»çæ£ææé¬±çä¹åºä¹³åç©çæ¹æ³ï¼å æ¬æ½äºæè¿°åºä¹³åç©ææéçå»èæ®æ±ç£·é ¸é¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æä¾äºä¸ç¨®æ²»çæ£æè ¸èºçä¹åºä¹³åç©çæ¹æ³ï¼å æ¬æ½äºæè¿°åºä¹³åç©ææéä¹å»èæ®æ±ç£·é ¸é¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æä¾äºä¸ç¨®æ²»çæ£ææ³¨æå缺é·éåçä¹åºä¹³åç©çæ¹æ³ï¼å æ¬æ½èæè¿°åºä¹³åç©ææéä¹å»èæ®æ±ç£·é ¸é¹½ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ï¼æä¾äºä¸ç¨®æ²»çæ£æå®åä¹åºä¹³åç©çæ¹æ³ï¼å æ¬æ½èæè¿°åºä¹³åç©ææéä¹å»èæ®æ±ç£·é ¸é¹½ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æè¿°ä¹åºä¹³åç©çºäººé¡ãIn another embodiment, a method of treating a mammal suffering from depression comprising administering an effective amount of tianeptine phosphate to the mammal is provided. In another embodiment, a method of treating a mammal suffering from intestinal tract, comprising administering an effective amount of tianeptine phosphate in said mammal, is provided. In another embodiment, a method of treating a mammal having attention deficit hyperactivity disorder comprising administering an effective amount of tianeptine phosphate to the mammal is provided. In another embodiment, a method of treating a mammal having asthma comprising administering an effective amount of tianeptine phosphate to the mammal is provided. In another specific embodiment, the mammal is a human.
æ¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼å æ¬äºè£½åä¸è¥åï¼å å«äºå»èæ®æ±ç£·é ¸é¹½ãé種è¥åå¯ç¨æ¼éè¦æ¤ç¨®æ²»ççåºä¹³åç©ï¼ç¨ä»¥æ²»çæé¬±çï¼è ¸èºçï¼æ³¨æå缺é·éåçæå®åçç¾ç ãå¨å¦ä¸é å ·é«å¯¦æ½ä¾ï¼æè¿°åºä¹³åç©æ¯äººãIn another embodiment of the invention, the preparation of a medicament comprising tianeptine phosphate is included. Such agents are useful in mammals in need of such treatment for the treatment of depression, intestinal cramps, attention deficit hyperactivity disorder or asthma. In another specific embodiment, the mammal is a human.
å»èæ®æ±ç£·é ¸é¹½çè¥åååç坿å¤ç¨®æ½èçæ¹æ³ï¼å ¶å æ¬ä½ä¸éæ¼å£æã壿é«è¥çµåç©åååçºç¤ºç¯ååã壿ååå¯è¦éè¦çºåºé«ååï¼å¦é åï¼ä¸æåé ï¼ä¸ç¡¬è åï¼ä¸æ¾±ç²è åï¼ä¸ç¾¥ä¸åºç²åºçºç¶ç´ (HPMC)è åï¼æä¸è»å½æ§æè è åãæ¬ç¼æä¹æä¾äºæ¶²é«ååï¼å ¶ä¸å æ¬ä¸åçºéå¶çä¾å妿¸æµ®æ¶²ã溶液ãç³æ¼¿æä¹³åãPharmaceutical dosage forms of tianeptine phosphate may be administered in a variety of ways including, but not limited to, oral. Oral pharmaceutical compositions and dosage forms are exemplary dosage forms. The oral dosage form may be in the form of a solid dosage form such as a tablet, an easy-to-swallow tablet, a hard capsule, a starch capsule, a monohydroxypropyl methylcellulose (HPMC) capsule, or a soft elastic gelatin capsule. The invention also provides liquid dosage forms which include, without limitation, examples such as suspensions, solutions, syrups or emulsions.
å»èæ®æ±ç£·é ¸é¹½ä»¥æ§å¶æå»¶é²éæ¾çææ®µä¾æè¥ãæ§éçé«è¥ç¢åé常é½å ·æä¸æ¹åå ¶éæ§éè¥ç©ççæçä¸è¬ç®æ¨ãçæ³æ æ³ä¸ï¼å©ç¨è¦éè¦è¨è¨çæ§é製åå¨é«çä¸ç¹é»æ¯ä»¥æä½çAPI(æ´»æ§è¥ç©æå)ç©è³ªéæ¾æ¼æççæéå §ä¾æ²»çææ§å¶ç æ ãæ§éé«è¥çµåç©çåªé»ä¸è¬å æ¬ï¼1)å»¶é²äºAPIçæ´»æ§ï¼2)æ¸å°åéçé »çï¼3)æé«ç 人çé ææ§ï¼4)è¼å°ç¸½APIçåéï¼5)æ¸å°å±é¨æå ¨èº«æ§çå¯ä½ç¨ï¼6)APIçç©ç´¯æå°åï¼7)æ¸å°è¡æ¶²æ¿åº¦çæ³¢åï¼8)æ¹åæ²»çææï¼9)éä½å¢å¼·ææææ¸ä½APIæ´»æ§ï¼å10)æ¹åæ§å¶ç¾ç æå¾µççæ§å¶é度ã(Kim,Cherng-ju,Controlled Release Dosage Form Design,2 Technomic Publishing,Lancaster,Pa.: 2000)ãThe tianeptine phosphate is administered by means of controlled or delayed release. Controlled release pharmaceutical products generally have a general goal of improving the efficacy of their non-controlled release drugs. Ideally, the use of controlled release formulations designed as needed is medically characterized by the release of the lowest API (active pharmaceutical ingredient) in the shortest amount of time to cure or control the condition. The advantages of controlled release pharmaceutical compositions generally include: 1) delayed API activity; 2) reduced dose frequency; 3) improved patient compliance; 4) less total API dose; 5) reduced local or systemic Side effects; 6) Minimization of API accumulation; 7) Reduction of fluctuations in blood concentration; 8) Improvement of therapeutic effect; 9) Reduction of enhancement effect or reduction of API activity; and 10) Improvement of control rate of control of disease or symptoms. (Kim, Cherng-ju, Controlled Release Dosage Form Design, 2 Technomic Publishing, Lancaster, Pa.: 2000).
æ¬ç¼æä¹å ¸åçæ¯æ¥åéå æ¬å»èæ®æ±ç£·é ¸é¹½ï¼å ¶åéå¾ç´10.0mgè³50.0mgå·¦å³ï¼ç´12.5mgè³37.5mgï¼æç´25.0mgè³37.5mgã卿¬ææè¿°çåéçºå»èæ®æ±èªç±é¹¼çåéï¼ä¸å æ¬ç¸å°é¢å(å¦ç£·)æä»»ä½æ°´ææº¶åååçééãA typical daily dose of the invention comprises tianeptine phosphate at a dose of from about 10.0 mg to about 50.0 mg, from about 12.5 mg to 37.5 mg, or from about 25.0 mg to 37.5 mg. The doses described herein are doses of tianeptine free base, excluding the weight of relative ions (such as phosphorus) or any water or solvent molecules.
卿¬ç¼æä¹å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼çµ¦äºå£æä¸ç¨®å å«å»èæ®æ±ç£·é ¸é¹½çé«è¥çµåç©ï¼æéåéç±ç´10.0mgè³50.0mgå·¦å³ï¼ç´12.5mgè³50.0mgå·¦å³ï¼ç´25.0mgè³50.0mgå·¦å³ï¼æç´37.5mgè³50.0mgå·¦å³çå»èæ®æ±ãä¾å¦ï¼ç´12.5mgï¼ç´25.0mgæç´37.5mgãå¨ç¹å®çå ·é«å¯¦æ½ä¾ä¸ï¼è¥åæåå æ¬å¯å£æçå»èæ®æ±ç£·é ¸é¹½ï¼åéç´çº25.0mgæç´37.5mgãåé總é¡å¯å®ä¸æå次æ½è¥ãå¨å¦ä¸å ·é«å¯¦æ½ä¾ä¸ï¼æ¯æ¥åéçé«è¥çµåç©å æ¬å»èæ®æ±ç£·é ¸é¹½ï¼å ¶å æ¬æå¤ä¸è¶ é50.0毫å çå»èæ®æ±ãå¨å ¶ä»çå ·é«å¯¦æ½ä¾ä¸ï¼æ¬ç¼æçºéå°å 嫿¬æä¸æè¿°å»èæ®æ±ç£·é ¸é¹½çé«è¥çµåç©ï¼åé©åæ½äºåºä¹³åç©ç¨ä»¥æ²»çæé é²ä¸åæå¤åæ¼æ¬æä¸æè¿°ç å¾µçä¸åæå¤åç¨éåãè¼é«å/æè³¦å½¢åãå¨ä¸åå ·é«å¯¦æ½ä¾ä¸ï¼ä¸åå»èæ®æ±ç£·é ¸é¹½æ§å¶éæ¾é«è¥çµåç©æ¯èµ·å ¶ä»åå¼çå»èæ®æ±é«è¥çµåç©ï¼éè¦è¼ä¸è¤éçè³¦å½¢åæ··åç©ãIn another embodiment of the present invention, a pharmaceutical composition comprising tianeptine phosphate is administered orally at a dose of from about 10.0 mg to about 50.0 mg, from about 12.5 mg to about 50.0 mg, and about 25.0 mg to About 70.0 mg, or about 37.5 mg to 50.0 mg of tianeptine. For example, about 12.5 mg, about 25.0 mg or about 37.5 mg. In a particular embodiment, the pharmaceutical composition comprises an orally available tianeptine phosphate at a dose of about 25.0 mg or about 37.5 mg. The total dose can be administered in a single or divided dose. In another specific embodiment, the daily dose of the pharmaceutical composition comprises tianeptine phosphate comprising up to 50.0 mg of tianeptine. In other specific embodiments, the invention is directed to a pharmaceutical composition comprising the tianeptine phosphate described herein, and to a mammal for use in the treatment or prevention of one or more of the conditions described herein. One or more diluents, carriers and/or excipients. In one embodiment, a stanopeptine phosphate controlled release pharmaceutical composition requires a less complex excipient mixture than other types of tianeptine pharmaceutical compositions.
æ¬ç¼æçå»èæ®æ±ç¡«é ¸é¹½éå¯ç¨æ¼è£½åä¸è¿°å£æè¥ç©ä»¥å¤çååï¼å¦å±é¨ååï¼æ³¨å°ååï¼ç©¿ç®å¸æ¶åååç²èååãèä¾ä¾èªªï¼éäºå½¢å¼å æ¬ä¹³éï¼ä¹³æ¶²ï¼æº¶æ¶²ï¼æ¸æµ®æ¶²ï¼ä¹³åï¼è¥èï¼ç²æ«ï¼è²¼çï¼æ åççãThe tianeptine sulfate of the present invention can also be used in the preparation of dosage forms other than the above oral drugs, such as topical dosage forms, injectable dosage forms, transdermal absorption dosage forms and mucosal dosage forms. For example, these forms include creams, lotions, solutions, suspensions, emulsions, ointments, powders, patches, suppositories, and the like.
æ¬ç¼æä¹å»èæ®æ±ç£·é ¸é¹½å½¢å¼å¯è¢«è¡¨å¾µçºï¼ä¾å¦ï¼èç±TGAï¼DSCï¼DVSï¼å®æ¶X-å°ç·ç¹å°åæ¸æï¼æèç±ä»»ä¸ï¼ä»»äºï¼ä»»ä¸ï¼ä»»åï¼ä»»äºï¼ä»»å ï¼ä»»ä¸ï¼ä»»å «ï¼ä»»ä¹ï¼ä»»åï¼æä»»ä½å®æ´æ¸ä¹PXRD 2-θè§å³°ï¼æèç±ä»»ä½å¾èªä¸è¿°åææè¡ä¹æ¸æä¹çµåãThe tianeptine phosphate form of the present invention can be characterized, for example, by TGA, DSC, DVS, single crystal X-ray diffractometer data, or by any, any two, any three, any four, Any of five, six, seven, eight, nine, ten, or any single integer PXRD 2-theta peak, or a combination of data from any of the above analytical techniques.
éç¶æ¬ç¼æå·²ä»¥åæ¹é¢ä¹å ·é«å¯¦æ½ä¾æé²å¦ä¸ï¼å¨ä¸è«é¢æ¬ç¼æä¹ç²¾ç¥åå¾éä¹ç³è«å°å©ç¯åå §ï¼æ¬ç¼æéè½å¤ å¤ç¨®å¤æ¨£çé²ä¸æ¥å ·é«å¯¦æ½ãWhile the invention has been described in terms of various embodiments, the invention can be embodied in various embodiments without departing from the scope of the invention.
實æ½ä¾Example 實æ½ä¾1Example 1 å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©(7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸ï¼S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©)Thiapeptin hemisulfate monohydrate (7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine-11- Amino]heptanoic acid, S,S-dioxide hemisulfate monohydrate) 實æ½ä¾1aExample 1a15 STABLON(å»èæ®æ±é)é åå¨ä¸ç ç¼½ä¸è¢«æµç£¨ç¢ï¼ä¸¦è15mLä¹åæ°«åå(THF)æ··å以èåå»èæ®æ±ã以éçªåè¶ è²èç便··åéäºæ··åç©ã以叿°æ¼æéæ¿¾éæº¶è§£æåãèªç¶é濾ä¹ä¹¾æ·¨æº¶æ¶²è¸ç¼THF溶åï¼åå°å ¶é¤çµææº¶è§£å¨1.5mLå»é¢åæ°´ãæ·»å åç¶éä¹ç¡«é ¸ä»¥çµæ¶å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ã15 STABLON The (tianapeptin sodium) lozenge was mashed in a mortar and mixed with 15 mL of tetrahydrofuran (THF) to extract tianeptine. These mixtures were mixed by shaking and sonication. The non-dissolved components were filtered through a Buchner funnel. The THF solvent was evaporated from the filtered clean solution, and the remaining composition was dissolved in 1.5 mL of deionized water. Four equivalents of sulfuric acid were added to crystallize the tianeptine hemisulfate monohydrate.
實æ½ä¾1bExample 1bå¨50âä¸å°å»èæ®æ±é(1054.16å )溶解æ¼éé ¸ï¼æ°´(4å)50:50ä¸ï¼ä»¥ç¢çä¸åç¡è²æº¶æ¶²ãç±éæ¿¾æ¤æº¶æ¶²ï¼ä¸¦å¨95âçæ æ³ä¸æ¼å¤§ç´ä¸åéå §å å ¥ç¡«é ¸(66毫å)ãæ¤æº¶æ¶²å¨95âçæ æ³ä¸ï¼ä¸å°æå §æç¢ççµæ¶çä¹å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ãæ¥èå°æº«åº¦é漸調æ´è³104âï¼100åéï¼80âï¼220åéï¼25â40åéï¼ä»¥å5âï¼100åéãç¶å¾è®æ··åç©æ¼5âæªæéå¤(ç´20å°æ)ãéæ¿¾åºé«ï¼ä¸¦ä½¿ç¨éé ¸ï¼æ°´50:50(2Ã1å)ï¼æ°´(3Ã1å)ï¼ä¸é ®(1Ã600毫å)æ´æ·¨ã40âä¸ä¹¾ç¥åºé«å¨ç空ä¸ãSennalpeptin sodium (1054.16 g) was dissolved in acetic acid:water (4 L) at 50:50 at 50 ° C to give a colorless solution. The solution was filtered hot and sulfuric acid (66 mL) was added over approximately three minutes at 95 °C. This solution produced crystalline tianeptine hemisulfate monohydrate in one hour at 95 °C. The temperature was then gradually adjusted to 104 ° C, 100 minutes, 80 ° C, 220 minutes, 25 ° C for 40 minutes, and 5 ° C, 100 minutes. The mixture was then stirred at 5 ° C overnight (about 20 hours). The solid was filtered and washed with acetic acid: water 50: 50 (2 x 1 L), water (3 x 1 L), acetone (1 x 600 mL). The dried solid was dried under vacuum at 40 °C.
實æ½ä¾1cExample 1cå¨å®¤æº«ä¸å°å»èæ®æ±é(100å )溶解æ¼ç°ä¸éï¼æ°´(500毫å)50:50ä¸ï¼ä»¥ç¢çä¸åç¡è²æº¶æ¶²ãéæ¿¾æ¤æº¶æ¶²ï¼ä¸¦å å ¥45.4%ç¡«é ¸æº¶æ¶²(73.2毫å)ãç¶æ··åç©è¢«éæ¿¾ï¼æ¤æçµæ¶çä¹å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©å¨å ©åå°æå §æå®å ¨çµæ¶ã使ç¨50:50ç°ä¸éï¼æ°´(500毫å)åæ°´(300毫å)æ´æ·¨åºé«ï¼ç¶å¾å¨å¨åç°å¢ä¸ä¹¾ç¥åºé«éå¤ãSennalpeptin sodium (100 g) was dissolved in isopropanol:water (500 ml) 50:50 at room temperature to give a colorless solution. This solution was filtered and a 45.4% sulfuric acid solution (73.2 ml) was added. When the mixture is filtered, the crystalline tianeptine hemisulfate monohydrate will crystallize completely within two hours. The solid was washed with 50:50 isopropanol: water (500 ml) and water (300 ml), and then the solid was dried overnight under ambient conditions.
å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©å æ¬ä¸åå»èæ®æ±é¢åæ¯ç¡«é ¸é¹½åé¢åæ¯æ°´çº1:0.5:1çæ¯çãThe tianeptine hemisulfate monohydrate comprises a ratio of a tianeptine ion to a sulfate counterion ratio of 1:0.5:1.
å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©çµæ¶ä»£è¡¨äºèç±å®æä»»ä½æè¿°æ¼å¯¦æ½ä¾1aå°1cä¸ä¹æ¹æ³ä¹æå¾ï¼å ¶ç¹æ§å¯ä½¿ç¨PXRDãDSCãTGAãDynamic vapor sorption(DVS)ã宿¶X-å ç¹å°åãç´«å¤/叿¶å èãå ç«èè®æç´ å¤å è(FTIR)åææ¼å èä¾è¡¨å¾µãå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©åç¾çPXRDç¹å°åå æ¬2-θçºç´8.25ã8.97ã11.49ã13.91ã14.73ã16.95ã18.07ã19.39ã20.59ã21.99ã22.83åç´23.27度çç¹å°å³°(è¦åä¸)ãDSC卿æ°ç´193度表ç¾ä¸åå¸ç±è½ç§»(è¦åäº)ãTGAåæè¡¨æï¼å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©å¨å¤§ç´å®¤æº«å°ææ°ç´160度ä¹é失å»ç´ç¾åä¹5.0ä¹éé(è¦åä¸)ãThe tianeptine hemisulfate monohydrate crystals represent the properties obtained by performing any of the methods described in Examples 1a to 1c, and the characteristics thereof can be PXRD, DSC, TGA, Dynamic vapor sorption (DVS), single crystal X. - Characterization by light diffractometer, UV/absorption spectroscopy, Fourier transform infrared spectroscopy (FTIR) and Raman spectroscopy. The PXRD diffraction pattern exhibited by tianeptine hemisulfate monohydrate includes diffraction of 2-theta of about 8.25, 8.97, 11.49, 13.91, 14.73, 16.95, 18.07, 19.39, 20.59, 21.99, 22.83, and about 23.27 degrees. Peak (see Figure 1). The DSC exhibits an endothermic transfer at approximately 193 degrees Celsius (see Figure 2). TGA analysis indicated that tianeptine hemisulfate monohydrate lost about 5.0 percent by weight between about room temperature and about 160 degrees Celsius (see Figure 3).
åæ æ°£ç¸å¸é(DVS)宿äºå¨25âå·¦å³ï¼ç¸å°æ¿åº¦å¾å¤§ç´é¶è³90%å·¦å³ä¹å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©çåæ(è¦åå)ãDVSåæé¡¯ç¤ºå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©å¨ç´10%å·¦å³çç¸å°æ¿åº¦å°ç´90%å·¦å³çç¸å°æ¿åº¦ä¸æ¯ç©©å®çãéæ¯å ¸åçé叿¿æ§ææã使¼10%ç¸å°æ¿åº¦ï¼æ°´å已失å»ãDynamic gas phase adsorption (DVS) completes the analysis of tianeptine hemisulfate monohydrate at about 25 ° C and relative humidity from about zero to about 90% (see Figure 4). DVS analysis showed that tianeptine hemisulfate monohydrate was stable at a relative humidity of about 10% to a relative humidity of about 90%. This is a typical non-hygroscopic material. Below 10% relative humidity, the water mass has been lost.
宿¶æ¸æï¼2(碳21 æ°«27 ClN2 æ°§4 ç¡«1 )â§(ç¡«æ°§4 )â§2(æ°«2 æ°§)ï¼M=503.99ï¼å®ææ¶é«çï¼P2(1)/n;a=9.3816(4)åï¼b=25.2869(10)åï¼c=19.9621(7)åï¼Î±=90度ï¼Î²=103.144(2)度ï¼Î³=90度ï¼V=4611.6(3)ç«æ¹åï¼T=100(2)K;Z=8;D c =1.452å /ç«æ¹åï¼Î»=0.71073åãSingle crystal data: 2 (carbon 21 hydrogen 27 ClN 2 oxygen 4 sulfur 1 ) â§ (sulfur oxygen 4 ) â§ 2 (hydrogen 2 oxygen); M = 503.99; monoclinic crystal, P2 (1) / n; a = 9.3816 (4) angstrom; b = 25.2869 (10) angstrom; c = 19.9631 (7) angstrom; α = 90 degrees; β = 103.144 (2) degrees; γ = 90 degrees; V = 4611.6 (3) cubic angstroms; 100(2)K; Z=8; D c = 1.452 g/cm à ; λ=0.71073 angstroms.
å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©åç¾åºä¸ç´«å¤/叿¶å èï¼å å«ä¸æå¤§å¸å 度(λæå¤§å¼)ï¼ä¾å¦ï¼å¨ç´208nmï¼ä»¥åä¸å¼±å¸å 度ï¼ä¾å¦ï¼å¨ç´275nm(è¦å13)ãThe tianeptine hemisulfate monohydrate exhibits an ultraviolet/absorption spectrum comprising a maximum absorbance (lambda maximum), for example, at about 208 nm, and a weak absorbance, for example, at about 275 nm (see Figure 13).
å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©åç¾åºä¸FTIRå èï¼å å«ç¹å°å³°ï¼ä¾å¦ï¼å¨ç´1351ã1713ã1732ã2855ã2916ã2939ã3193以å3540cm-1 (è¦å14)ãThe tianeptine hemisulfate monohydrate exhibits an FTIR spectrum comprising diffraction peaks, for example, at about 1351, 1713, 1732, 2855, 2916, 2939, 3193, and 3540 cm -1 (see Figure 14).
å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©åç¾åºä¸ææ¼å èï¼å å«å³°æ³¢ï¼ä¾å¦ï¼å¨ç´286ã339ã582ã672ã695ã1053ã1099ã1163ã1182ã1300以å1586cm-1 (è¦å15)ãThe tianeptine hemisulfate monohydrate exhibits a Raman spectrum comprising peak waves, for example, at about 286, 339, 582, 672, 695, 1053, 1099, 1163, 1182, 1300, and 1586 cm -1 (see Figure 15).
以ä¸çºæä½¿ç¨ä¹åææè¡ãThe following are the analytical techniques used.
ææå¼ç±å·®ååScanning thermal differential忍£æ¬ä¹DSCåæä¹é²è¡ä½¿ç¨ä¸Q1000ææå¼ç±å·®åå(TAåå¨ï¼å¾·æç¦å·æ°å ¡ï¼ç¾å)ï¼å ¶ä½¿ç¨åªå¢QW-ç³»åï¼çæ¬1.0.0.78ï¼ç±åªå¢ç¼å¸2.0(2001 TAåå¨-æ°´å ¬å¸)ï¼ä»¥åä¸åçµæï¼QDdv.exeçæ¬1.0.0.78建è¨78.2ï¼RHBASE.DLLçæ¬1.0.0.78建è¨78.2ï¼RHCOMM.DLLçæ¬1.0.0.78建è¨78.0ï¼RHDLL.DLLçæ¬1.0.0.78建è¨78.1ï¼ä¸TGA.DLLçæ¬1.0.0.78建è¨78.1ãå¦å¤ï¼ä½¿ç¨ä¹åæè»é«çºéç¨åæ2000éå°Windows 95/95/2000/NTï¼çæ¬3.1Eï¼å»ºè¨3.1.0.40(2001 TAåå¨-æ°´å ¬å¸)ï¼æè æ¬ç¼æä¸å示æå ¶ä»èææå®ä¹å ¶ä»çæ¬ãThe DSC analysis of each sample was performed using a Q1000 scanning thermal differential (TA instrument, Newcastle, Delaware, USA), which used the advantage QW-series, version 1.0.0.78, thermal advantage release 2.0 ( 2001 TA Instruments - Water Company), and the following components: QDdv.exe version 1.0.0.78 build 78.2; RHBASE.DLL version 1.0.0.78 build 78.2; RHCOMM.DLL version 1.0.0.78 build 78.0; RHDLL.DLL version 1.0.0.78 build 78.1; A TGA.DLL version 1.0.0.78 builds 78.1. In addition, the analysis software used is Universal Analysis 2000 for Windows 95/95/2000/NT, version 3.1E; build 3.1.0.40 ( 2001 TA Instruments - Water Company), or other versions specified in the illustrations of the invention or elsewhere.
éå°ææçDSCåæï¼ç使ç¨ä¸å¯æ´é¤ç樣æ¬ï¼å¨ä¸åæ¨æºçé秤ç¤(秤ç¤é¨å# 900786.091ï¼èåé¨å# 900779.901)æä¸å¯å°é秤ç¤(秤ç¤é¨å# 900793.901ï¼èåé¨å# 900794.901(TAåå¨ï¼æ°å ¡ï¼å¾·æç¦ï¼ç¾å))ä¸ç§¤éãéæº¶å忍£å被è£å ¥æ¨æºç¤ä¸ä¸¦ä½¿ç¨çºç¸®å£è£½å¯å°ä¹¾ç¥æ¨£åï¼ä½¿ç¨å£æ¥æ¹å¼å¯å°æ¿æ¨£å(妿³¥æ¼¿)ãæº¶å樣æ¬(å æ¬æ°´åç©)被è£é²å¯å°ç¤åå¯å°ã樣å秤ç¤è¢«è£å ¥Q1000ææå¼ç±å·®ååï¼å ¶é åæä¸èªå忍£å¨ï¼ä¸¦èç±æ§å¶è»ä»¶ç¸åå°å®ç¨å ç±ä»¥å¾å°ä¸ç±ååï¼å ç±éççº10â/åéèªTmin (ä¸è¬çº30â)è³Tmax (té常çº300â)ï¼ä½¿ç¨ç©ºé秤ç¤ä½çºåèã使ç¨ä¹¾ç¥ç氮氣(å£ç¸®æ°®æ°£ï¼4.8ç´(BOCæ°£é«ï¼é»éå±±ï¼æ°æ¾¤è¥¿å·ï¼ç¾å))ä½çºæ¨£æ¬æ·¨åæ°£é«ï¼ä¸¦å°æµéè¨çº50mL/åéãå©ç¨å卿ä¾ä¹åæè»ä»¶è§å¯ååæç±è½ç§»ãFor all DSC analyses, use a divisible sample in a standard aluminum weighing pan (weighing pan section #900786.091; lid section #900779.901) or a sealed aluminum weighing pan (scale pan section #900793.901; cover section #900794.901 (TA Instruments, Newcastle, Delaware, USA)) Weighing in the middle. The unsolvated sample is loaded into a standard pan and the dried sample is sealed using crimping, and the wet sample (such as mud) is sealed using crimping. Solvent samples (including hydrates) are loaded into a sealing disk and sealed. The sample pan is loaded into a Q1000 scanning thermal differential equipped with an autosampler and heated separately by control software to obtain a thermal image at a heating rate of 10 ° C / min from T min (typically 30 °C) to T max (t is usually 300 ° C), using an empty aluminum weighing pan as a reference. Dry nitrogen (compressed nitrogen, grade 4.8 (BOC gas, Murray Hill, NJ, USA)) was used as a sample purge gas and the flow rate was set at 50 mL/min. Thermal transfer was observed and analyzed using analytical software provided by the instrument.
ç±ééåææ³Thermogravimetric analysis樣åçç±éåæ(TGA)使ç¨ä¸Q500ç±éåæå(TAåå¨ï¼æ°å ¡ï¼å¾·æç¦ï¼ç¾å)ï¼å ¶ä½¿ç¨åªå¢QW-ç³»åï¼çæ¬1.0.0.78ï¼ç±åªå¢ç¼å¸2.0(2001 TAåå¨-æ°´å ¬å¸)ãå¦å¤ï¼ä½¿ç¨ä¹åæè»é«çºUniversal Analysis 2000éå°Windows 95/95/2000/NTï¼çæ¬3.1Eï¼å»ºè¨3.1.0.40(2001 TAåå¨-æ°´å ¬å¸)ï¼æè æ¬ç¼æä¸å示æå ¶ä»èææå®ä¹å ¶ä»çæ¬ãThe thermogravimetric analysis (TGA) of the sample uses a Q500 thermogravimetric analyzer (TA Instruments, Newcastle, Delaware, USA), which uses the dominant QW-series, version 1.0.0.78, and thermal advantage release 2.0 ( 2001 TA Instruments - Water Company). In addition, the analysis software used is Universal Analysis 2000 for Windows 95/95/2000/NT, version 3.1E; build 3.1.0.40 ( 2001 TA Instruments - Water Company), or other versions specified in the illustrations of the invention or elsewhere.
éå°TGA實é©ï¼ä½¿ç¨ä¹¾ç¥ç氮氣ä½çºæ·¨åæ°£é«ï¼å¹³è¡¡æ·¨åæ°£é«çº40mL/åéæ°®2 ï¼æ¨£åæ·¨åæ°£é«çº60mL/åéæ°®2 ãFor the TGA experiment, dry nitrogen was used as the purge gas, the equilibrium purge gas was 40 mL/min of nitrogen 2 , and the sample purge gas was 60 mL/min of nitrogen 2 .
å°ä¸å»èæ®æ±ç¡«é ¸é¹½æ¾ç½®æ¼ä¸ç½é秤ç¤ä¸ä»¥é²è¡TGAãèµ·å§æº«åº¦ä¸è¬ç´çºææ°20度ï¼å ç±éççºææ°10度/åéï¼çµææº«åº¦çºææ°300度ãA tianeptine sulfate was placed in a platinum weighing pan for TGA. The initial temperature is generally about 20 degrees Celsius, the heating rate is 10 degrees Celsius per minute, and the end temperature is 300 degrees Celsius.
ç²æ«Xå°ç·ç¹å°Powder X-ray diffractionå©ç¨ä¸D/æå¤§å¿«éxå°ç·ç¹å°å以ç²å¾ç²æ«xå°ç·ç¹å°å樣(Rigaku/MSCï¼ä¼å¾·èå¾·æ¯ï¼å¾·å·ï¼ç¾å)ãA D/maximum fast x-ray diffractometer was used to obtain a powder x-ray diffraction pattern (Rigaku/MSC, Woodlands, Texas, USA).
D/æå¤§å¿«éxå°ç·ç¹å°åé åæä¸é æº(é /éα 1.5406)ï¼æåx-yé¡å°ï¼ä»¥å0.3mmæºç´åãèç±åçééæ¯ç´°ç®¡å°é端ï¼ä¸¦æ¼ä¸ç²æ«ç樣åå±¤ææ¼ä¸ææ¼¿æ¨£åæ²ç©ç©ä¸è¼å©å°çæ¯ç´°ç®¡éå£ç«¯ï¼å°æ¨£åæ¾å ¥ä¸0.3mmç³è±æ¯ç´°ç®¡(æ¥ç¾æ¯æé¤å ¬å¸ï¼ç´æå ï¼éé¿å¯ï¼ç¾å)ãç½®å ¥çæ¯ç´°ç®¡è¢«æ¾æ¼ä¸å®è£å¨x-yé¡å°ä¸ä¹æ¯æ¶å §ãä¸ç¹å°å樣éè¦æ§å¶è»ä»¶(RINTå¿«éæ§å¶è»ä»¶ï¼Rigakuå¿«é/XRDï¼çæ¬1.0.0(1999 Rigaku Co.))ï¼ç°å¢æ¢ä»¶çºå³è¼¸æ¨¡å¼ä¹åçè¨ç½®å¨40mAçº46kVï¼èéæ¼æç±³è-è»¸ä¹æ¯çªå¾0-5度çº1度/ç§ï¼éæ¼phi-è»¸ä¹æè½åè¶ é360度ï¼ä»¥2度/ç§ä¹é度ãæå æéçº15åéï¼é¤éå¦æèªªæãD / maximum fast x-ray diffractometer equipped with a copper source (copper / potassium α 1.5406 ), manual xy stage, and 0.3mm collimator. The sample was placed in a 0.3 mm quartz capillary by slicing the closed end of the capillary and tapping the open end of the capillary on a powdered sample layer or on a beating sample deposit (Charles Dinner Company, Natick, Miami) ,United States). The placed capillary is placed in a holder mounted on the xy stage. A diffractive pattern requires control software (RINT Rapid Control Software, Rigaku Express/XRD, version 1.0.0 ( 1999 Rigaku Co.)), the environmental condition is that the power of the transmission mode is set to 46kV at 40mA, and the oscillation of the Omega-axis is from 0-5 degrees to 1 degree/second, and the rotation of the phi-axis is more than 360 degrees. 2 degrees / second speed. The exposure time is 15 minutes unless otherwise stated.
ç²å¾ä¹ç¹å°åæ¯éæèª2-40度ä¹2-θ以åèª0-36åº¦ï¼æ¥é·çº0.02度ä¹chi(1段)ï¼ä¸¦ä½¿ç¨ç±Rigakuå卿ä¾ä¹RINTå¿«é顯示è»é«(RINTå¿«é顯示è»é«ï¼çæ¬1.18(Rigaku/MSC))ä¸çcyllnt æç¨ãæç §Rigakuä¹åç³»çµ±æ ¡æºå°æè¨æ¸çå¼è¨ç½®çº8ãæ´åæ²æä½¿ç¨æ£å¸¸åææç±³èãchiæphiæµé·ãæ¬ææå å«çç¹å°å顯示åå§æ¸æ(æ²ææ¸å»èæ¯)ãThe obtained diffraction pattern is integrated from 2-40 degrees of 2-θ and from 0-36 degrees, with a step size of 0.02 degrees chi (1 segment), and uses RINT fast display software provided by Rigaku instrument (RINT fast display) Software, cyllnt utility in version 1.18 (Rigaku/MSC). Set the value of the dark count to 8 according to the system calibration of Rigaku. Integration does not use normalization or offset by OMEGA, chi or phi. The diffraction diagrams included in this article show raw data (without subtracting the background).
ä¸ç¹å°åä¸çç¹å°å³°ç¸å°å¼·åº¦ä¸¦ä¸ä¸å®æ¯PXRD模å¼çéå¶ï¼å çºå³°å¼å¼·åº¦æé¨è樣åè®åï¼ä¾å¦ï¼ç±æ¼çµæ¶éè³ªãæ¤å¤ï¼æ¯ä¸ç¹å°å³°ä¹ä¹æææä¸åè§åº¦ï¼å¤§ç´+/-0.1åº¦ï¼æå¤§ç´+/-0.05ãç±æ¼ä¸åçæ ¡æºï¼è¨ç½®ååå¨ä¹éåæä½è ä¹éçä¸åå ç´ ï¼æ´åæ¨¡å¼æå¤§é¨å模å¼ä¹ç¹å°å³°ä¹å¯è½æ¹è®å¤§ç´+/-0.1度è³ç´+/-0.2度ãå¨å示ï¼å¯¦æ½ä¾ï¼ä»¥åæ¬èªªææ¸å ¶ä»è䏿æå ±åä¹PXRDç¹å°å³°é½å ·æ2-θ大ç´Â±0.1度ä¹èª¤å·®ãé¤éå¦æèªªæï¼ææç¹å°åçæ¼å®¤æº«(ç´ææ°24åº¦è³ææ°25度)ä¸å®æãThe relative intensity of the diffraction peaks in a diffraction pattern is not necessarily a limitation of the PXRD mode because the peak intensity varies with the sample, for example, due to crystalline impurities. In addition, each diffraction peak will have a different angle, approximately +/- 0.1 degrees, or approximately +/- 0.05. The diffraction peaks for the entire mode or most modes may also vary by about +/- 0.1 degrees to about +/- 0.2 degrees due to different calibrations, settings, and different factors between the instruments and the operator. All of the reported PXRD diffraction peaks in the figures, the examples, and elsewhere in this specification have an error of 2-theta of about ±0.1 degrees. All diffraction patterns are done at room temperature (approximately 24 degrees Celsius to 25 degrees Celsius) unless otherwise stated.
宿¶Xå°ç·ç¹å°Single crystal X-ray diffraction使ç¨å¨ä¸Bruker KAPPA APEX IIé»è·è¦åå ä»¶åå嵿¸¬ç³»çµ±ä¸ä¹100(2)K便¸¬éXå°ç·å¼·åº¦æ¸æï¼æ¤åµæ¸¬ç³»çµ±é åæç³å¢¨å®è²å¨åMoKαfine-éé»å¯å°ç®¡(λ=0.71073)ï¼æä½åççº1.5åç¦(50kV,30mA)ãå «ååå»èæ®æ±çµæå®ä½ç´°èãç¡«é ¸æ ¹é¢åå½¢æå¨å ©åå»èæ®æ±ååä¹äºç´èºä¸å½¢æä¸åé¹½ãå ©åå»èæ®æ±ååå䏿°´ååä¹ç¾§é ¸å°¾åç¡«é ¸æ ¹é¢åä¹éå¯ä»¥ç¼ç¾æ°«éµãX-ray intensity data was measured using a 100(2)K on a Bruker KAPPA APEX II CCD device. The detection system is equipped with a graphite monochromator and a MoKαfine-focus seal tube (λ=0.71073). ), operating power is 1.5 kW (50kV, 30mA). Eight molecules of tianeptine constitute unit cells. Sulfate ions form a salt on the secondary amines of the two tianeptine molecules. Hydrogen bonds can be found between the two tianeptine molecules and the carboxylic acid tail and sulfate ion of one water molecule.
ç´«å¤/叿¶å èUV/absorption spectroscopyå©ç¨ä¸å¡è50ç´«å¤/å¯è¦å åæå(Vankelï¼å¸ç¾ 奧å¤ï¼å å·)測éç´«å¤/叿¶å èãå°å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©æº¶è§£æ¼ç²éï¼æ°´(0.150mg/mL) 50:50ä¸)ï¼ééä¸åéæ¿¾0.45um乿³¨å°é濾å¨ï¼ç¶å¾ä»¥ç¸å溶å(çµæ¿åº¦0.075mg/mL)ç¨é2åãå°1.0mLæ¨£åæ·»å å°ä¸åå ·æå å¾1.0cmä¹ç³è±æ¯è²ç®¡ãThe UV/absorption spectra were measured using a Carlisle 50 UV/Vis spectrometer (Vankel, Palo Alto, Calif.). The tianeptine hemisulfate monohydrate was dissolved in methanol:water (0.150 mg/mL) 50:50) through a filtered 0.45 um syringe filter followed by the same solvent (final concentration 0.075 mg/mL) Dilute 2 times. A 1.0 mL sample was added to a quartz colorimetric tube having a light path of 1.0 cm.
å ç«èè®æç´ å¤å èFourier transform infrared spectroscopyFTIRåææ¯å©ç¨ç±é»å ¬å¸ä¹ä¸å¥å çæ¯470 FTIRåå¨(è³å·ï¼è²»å)ãå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©å溴åéä¸èµ·è¢«ç 磨並å£ç¸®æä¸ååéæçåå¹³é¢ãå¨E.S.P.模å¼ä½¿ç¨32次ææé²è¡åæã卿¨£æ¬åæåæ¶é䏿¸ æ°èæ¯æ¸¬éå¼ãFTIR analysis is the use of one of the thermoelectric companies Nexus 470 FTIR instruments (Pennsylvania, Philadelphia). The tianeptine hemisulfate monohydrate and potassium bromide are ground together and compressed into a translucent circular plane. The analysis was performed using 32 scans in the E.S.P. mode. A fresh background measurement was collected prior to sample analysis.
ææ¼å èRaman spectroscopyææ¼å è表徵æ¯å©ç¨ç±é»å ¬å¸ä¹ä¸å°¼å¯èææ¼ç³»çµ±é²è¡ï¼å ¶é åæä¸785nmæ¿å 顯微é¡è£ç½®åä¸10åç©é¡ãå©ç¨æ¯æ¬¡æå 4ç§çªå£ä¹30次æå 便¶éåæ£çææ¼å èã卿¨£æ¬åæåæ¶é䏿¸ æ°èæ¯æ¸¬éå¼ãRaman spectroscopy is performed using the Nicolai Raman system, one of the thermoelectric companies, equipped with a 785 nm laser microscope device and a 10x objective lens. The dispersed Raman spectra were collected using 30 exposures of a 4 second window per exposure. A fresh background measurement was collected prior to sample analysis.
實æ½ä¾2Example 2 å»èæ®æ±é¹½é ¸é¹½(7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸ï¼S,S-äºæ°§åç©é¹½é ¸é¹½)Thiapeptin hydrochloride (7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine-11-yl)amine) Base]heptanoic acid, S,S-dioxide hydrochloride)31 STABLON(å»èæ®æ±é)é åå¨ä¸ç ç¼½ä¸è¢«æµç£¨ç¢ï¼ä¸¦è23mLä¹åæ°«åå(THF)æ··å以èåå»èæ®æ±ã以éçªåè¶ è²èç便··åéäºæ··åç©ã以叿°æ¼æéæ¿¾éæº¶è§£æåãèªç¶é濾ä¹ä¹¾æ·¨æº¶æ¶²è¸ç¼THF溶åï¼åå°å ¶é¤çµææº¶è§£å¨4mLå»é¢åæ°´ãæ·»å åç¶éä¹é¹½é ¸ä»¥çµæ¶å»èæ®æ±é¹½é ¸é¹½ã31 STABLON The (tianapeptin sodium) lozenge was mashed in a mortar and mixed with 23 mL of tetrahydrofuran (THF) to extract tianeptine. These mixtures were mixed by shaking and sonication. The non-dissolved components were filtered through a Buchner funnel. The THF solvent was evaporated from the filtered clean solution, and the remaining composition was dissolved in 4 mL of deionized water. Four equivalents of hydrochloric acid were added to crystallize tianeptine hydrochloride.
çµæ¶ä»£è¡¨äºèç±å®æä¸è¿°æ¹æ³ä¹æå¾ï¼å ¶ç¹æ§å¯ä½¿ç¨PXRDãDSCãTGAï¼åæ æ°´ä»½å¸éåæ(DVS)ä¾è¡¨å¾µãå»èæ®æ±é¹½é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´7.23ã9.43ã9.91ã10.53ã14.53ã18.35ã21.39åç´23.93度çç¹å°å³°(è¦å5)ãDSC卿æ°ç´199度表ç¾ä¸åå¸ç±è½ç§»(è¦å6)ãTGAåæè¡¨æï¼å»èæ®æ±é¹½é ¸é¹½å¨å¤§ç´å®¤æº«å°ææ°ç´140度ä¹é失å»ç´ç¾åä¹2.9çéé(è¦å7)ãCrystallization represents the result obtained by performing the above method, and its characteristics can be characterized using PXRD, DSC, TGA, dynamic moisture adsorption analysis (DVS). The PXRD diffraction pattern exhibited by tianeptine hydrochloride includes a diffraction peak of 2-theta of about 7.23, 9.43, 9.91, 10.53, 14.53, 18.35, 21.39, and about 23.93 degrees (see Figure 5). The DSC exhibits an endothermic transfer at approximately 199 degrees Celsius (see Figure 6). TGA analysis indicated that tianeptine hydrochloride lost about 2.9 percent by weight between about room temperature and about 140 degrees Celsius (see Figure 7).
åæ æ°´ä»½å¸éåæ(DVS)卿æ°25度ä¸èªç¸å°æ¿åº¦ç´0å°ç´90%ä¹å»èæ®æ±é¹½é ¸é¹½(è¦å8)ãåæ æ°´ä»½å¸éåæ(DVS)顯示å»èæ®æ±é¹½é ¸é¹½å¨ç¸å°æ¿åº¦ç´å°å¤§ç´90%齿¯ç©©å®çã卿´åæ¿åº¦ç¯åå §ï¼å»èæ®æ±é¹½é ¸é¹½å¸æ¶ä¸å°2.5%çæ°´ééãDynamic moisture adsorption analysis (DVS) of tianeptine hydrochloride at a relative humidity of from about 0 to about 90% at 25 degrees Celsius (see Figure 8). Dynamic moisture adsorption analysis (DVS) showed that tianeptine hydrochloride was stable at relative humidity up to about 90%. The tianeptine hydrochloride absorbs less than 2.5% of the water weight over the entire humidity range.
實æ½ä¾3Example 3 å»èæ®æ±ç£·é ¸é¹½(7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯ä¸¦[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸ï¼S,S-äºæ°§åç©ç£·é ¸é¹½)Thiapeptin phosphate (7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)) ]heptanoic acid, S, S-dioxide phosphate)15 STABLON(å»èæ®æ±é)é åå¨ä¸ç ç¼½ä¸è¢«æµç£¨ç¢ï¼ä¸¦è15mLä¹åæ°«ååæ··å以èåå»èæ®æ±ã以éçªåè¶ è²èç便··åéäºæ··åç©ã以叿°æ¼æéæ¿¾éæº¶è§£æåãèªç¶é濾ä¹ä¹¾æ·¨æº¶æ¶²è¸ç¼THF溶åï¼åå°å ¶é¤çµæå溶解æ¼2.5mL THFãæ·»å äºç¶éä¹ç£·é ¸ä»¥çµæ¶å»èæ®æ±ç£·é ¸é¹½ã15 STABLON The (tianapeptin sodium) lozenge was mashed in a mortar and mixed with 15 mL of tetrahydrofuran to extract tianeptine. These mixtures were mixed by shaking and sonication. The non-dissolved components were filtered through a Buchner funnel. The THF solvent was evaporated from the filtered clean solution and the remaining mixture was redissolved in 2.5 mL THF. Five equivalents of phosphoric acid were added to crystallize the tianeptine phosphate.
çµæ¶ä»£è¡¨äºèç±å®æä¸è¿°æ¹æ³ä¹æå¾ï¼å ¶ç¹æ§å¯ä½¿ç¨PXRDãDSCãTGAãåæ æ°´ä»½å¸éåæ(DVS)ä¾è¡¨å¾µãå»èæ®æ±ç£·é ¸é¹½åç¾çPXRDç¹å°åå æ¬2-θçºç´6.83ã9.27ã11.95ã13.53ã13.83ã15.93ã16.31ã17.35ã18.47ã20.93ã21.49ã22.77åç´23.67度çç¹å°å³°(è¦å9)ãDSC卿æ°ç´193度表ç¾ä¸åå¸ç±è½ç§»(è¦å10)ãTGAåæè¡¨æï¼å»èæ®æ±ç£·é ¸é¹½å¨å¤§ç´å®¤æº«å°ææ°ç´199度ä¹é失å»ç´ç¾åä¹3.7çéé(è¦å11)ãCrystallization represents the result obtained by performing the above method, and its characteristics can be characterized using PXRD, DSC, TGA, dynamic moisture adsorption analysis (DVS). The PXRD diffraction pattern exhibited by tianeptine phosphate includes diffraction peaks of 2-theta of about 6.83, 9.27, 11.95, 13.53, 13.83, 15.93, 16.31, 17.35, 18.47, 20.93, 21.49, 22.77, and about 23.67 degrees ( See Figure 9). The DSC exhibits an endothermic transfer at approximately 193 degrees Celsius (see Figure 10). TGA analysis indicated that tianeptine phosphate lost about 3.7 percent by weight between about room temperature and about 199 degrees Celsius (see Figure 11).
åæ æ°´ä»½å¸éåæ(DVS)卿æ°25度ä¸èªç¸å°æ¿åº¦ç´0å°ç´90%ä¹å»èæ®æ±ç£·é ¸é¹½(è¦å12)ãåæ æ°´ä»½å¸é(DVS)åæé¡¯ç¤ºå»èæ®æ±ç£·é ¸é¹½å¨ç¸å°æ¿åº¦ç´90%æå¸æ¶äºå¤§ç´æééçº25%çæ°´ãDynamic moisture adsorption analysis (DVS) is from about 0 to about 90% tianeptine phosphate at 25 degrees Celsius (see Figure 12). Dynamic moisture adsorption (DVS) analysis showed that tianeptine phosphate absorbed about 25% by weight of water at a relative humidity of about 90%.
實æ½ä¾4Example 4 å»èæ®æ±éä¹ç¸å°åæ æ°´ä»½å¸éåæ(DVS)æ¸æRelative dynamic moisture adsorption analysis (DVS) data for tianeptine sodiumå16顯示å»èæ®æ±éä¹ç¸å°DVSæ¸æ(å¨ç´ææ°25度)åå4ä¸ä¹å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ä¹DVSæ¸æä¹æ¯è¼ãå»èæ®æ±éå¨ç¸å°æ¿åº¦ç´60%æéå§æ½®è§£ï¼ä¸¦å¨ç¸å°æ¿åº¦ç´90%æå¸æ¶äºå¤§ç´38%çæ°´(æéé)ãFigure 16 shows a comparison of the relative DVS data for tianeptine sodium (at about 25 degrees Celsius) and the DVS data for tianeptine hemisulfate monohydrate of Figure 4. The tianeptine sodium begins to deliquesce at a relative humidity of about 60% and absorbs about 38% of water (by weight) at a relative humidity of about 90%.
實æ½ä¾5Example 5 å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©çæ°´æ§æº¶è§£åº¦Aqueous solubility of tianeptine hemisulfate monohydrateæ·»å ééçå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©(ä¾èªå¯¦æ½ä¾1)å°æº¶æ¶²ä¸ä¸¦å¨æçºæ··åä¸å¹³è¡¡24å°æï¼ç¶å¾å¨å®¤æº«ä¸æ¸¬éå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©çæ°´æ§æº¶è§£åº¦ãä¸ç¨®æº¶æ¶²è¢«ä½¿ç¨ï¼å æ¬10mM HCl溶液ãpHå¼çº6.5(50mMç£·é ¸é)çç·©è¡æº¶æ¶²åå»é¢åæ°´ã徿¯å溶液ä¸ç§»é¤å©é¤åºé«ä¸¦é²è¡åºæ å½¢å¼åæãå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ä¸¦æªé¡¯ç¤ºåºæä»»ä½è½æçºèªç±å ©æ§é¢åå½¢å¼ãå¨å ¨é¨ä¸ç¨®æº¶æ¶²ä¸ï¼å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©çæº¶è§£åº¦å°æ¼1mg/mLå17顯示å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ãå»èæ®æ±é¹½é ¸é¹½åå»èæ®æ±ç£·é ¸é¹½ç溶解度æ¯è¼ãAn excess of tianeptine hemisulfate monohydrate (from Example 1) was added to the solution and equilibrated for 24 hours with continuous mixing, then the aqueous solubility of tianeptine hemisulfate monohydrate was measured at room temperature. . Three solutions were used, including a 10 mM HCl solution, a buffer solution with a pH of 6.5 (50 mM sodium phosphate), and deionized water. The remaining solids were removed from each solution and analyzed in solid form. The tianeptine hemisulfate monohydrate did not show any conversion to a free zwitterionic form. The solubility of tianeptine hemisulfate monohydrate in less than 1 mg/mL in all three solutions. Figure 17 shows tianeptine hemisulfate monohydrate, tianeptine hydrochloride and tianeptine phosphate The solubility of the salt is compared.
實æ½ä¾6Example 6製é ä¸ç¨®å»èæ®æ±ç¡«é ¸é¹½çé æ¹ãçµåç©æè¿°å¦ä¸ãFormulation of three tianeptine sulfates. The composition is described below.
實æ½ä¾7Example 7測éä¸åå»èæ®æ±å½¢å¼çpH弿º¶è§£åº¦æ²ç·ï¼å»èæ®æ±é¹½é ¸é¹½ï¼å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ï¼ç²è¯ç£ºé ¸å»èæ®æ±ï¼å»èæ®æ±èªç±å½¢å¼(åIIå ©æ§é¢åï¼å¦ç¾åå ¬éèUS2008/0221081 A1䏿æè¿°ä¸¦éå®ï¼å ¶PXRDç¹å°åæç¹ªæ¼å18ä¸)ï¼åå»èæ®æ±éãThe pH solubility curves of the following tianeptine forms were measured: tianeptine hydrochloride; tianeptine hemisulfate monohydrate; tianeptine tosylate; tianeptine free form (type II) Ions, as described and identified in U.S. Publication No. US 2008/0221081 A1, the PXRD diffraction pattern of which is depicted in Figure 18; and tianeptine sodium.
以ä¸è¿°ç¨åºè£½å卿¤å¯¦æ½ä¾ä¸æä½¿ç¨çç²è¯ç£ºé ¸å»èæ®æ±ãå°å»èæ®æ±èªç±å½¢å¼II(2.072å )èå°ç²è¯ç£ºé ¸(0.923å )çµåãå¨è©²åºé«æ··åç©ä¸æ·»å ä¹è (50.0毫å)ãå°è©²æ··åç©å ç±ä»¥ç¢åºä¸æ¸ æ¾æº¶æ¶²ãå 許該溶液å·å»è³å®¤æº«ï¼ç¶å¾ç¨®å ¥ç²è¯ç£ºé ¸å»èæ®æ±(ç´5毫å )ãå è¨±è©²æº¶æ¶²æªæä¸æ´å¤ä»¥ç¢åºå®æ´çç¢ç©çµæ¶ãæ¥èå°æ¸æµ®æ¶²å·å»è³0âä¸¦éæ¿¾ä»¥åé¢åºç½è²çµæ¶åºé«ãThe tianeptine tosylate used in this example was prepared by the following procedure. The tianeptine free form II (2.072 grams) was combined with p-toluenesulfonic acid (0.923 grams). Acetonitrile (50.0 mL) was added to the solid mixture. The mixture is heated to produce a clear solution. The solution was allowed to cool to room temperature and then tianeptine tosylate (about 5 mg) was added. The solution was allowed to stir overnight to yield the complete product crystals. The suspension was then cooled to 0 ° C and filtered to isolate a white crystalline solid.
ä¸é¢æä¾å¦ä¸åå¯è£½åç²è¯ç£ºé ¸å»èæ®æ±çç¨åºãå°å»èæ®æ±é(442.0毫å )èå°ç²è¯ç£ºé ¸(199.3毫å )çµåãæ·»å éé ¸ä¹é ¯åç²è¯çº1ï¼1çæº¶æ¶²(å ±10毫å)å°è©²åºé«æ··åç©ä¸ãå°è©²æ··åç©é²è¡çæ«çè¶ é³æ³¢éçªä»¥ç¢åºæº¶æ¶²ï¼æ¥èæªæç´15åéãæªæçæ´åéç¨ä¸ï¼è§å¯å°å½¢æç½è²æ¸æµ®é«çæé¡¯çµæ¶ãèç±é濾æ¶é該åºé«ï¼ç¶å¾å¨75âç空ä¸ä¹¾ç¥60å°æãAnother procedure for preparing tianeptine tosylate is provided below. Sennalpeptin sodium (442.0 mg) was combined with p-toluenesulfonic acid (199.3 mg). A solution of ethyl acetate and toluene in a ratio of 1:1 (total 10 ml) was added to the solid mixture. The mixture was subjected to brief ultrasonic vibration to produce a solution, followed by stirring for about 15 minutes. During the entire agitation, significant crystallization of the white suspension was observed. The solid was collected by filtration and then dried under vacuum at 75 ° C for 60 hours.
ä¸é¢æ´æä¾å¦ä¸åå¯è£½åç²è¯ç£ºé ¸å»èæ®æ±çç¨åºãå°å»èæ®æ±èªç±å½¢å¼II(45.5毫å )èå°ç²è¯ç£ºé ¸(21.5毫å )çµåãæ·»å ä¹è (1.0毫å)å°è©²åºé«æ··åç©ä¸ãå°è©²æ··åç©æº«åå ç±ä»¥ç¢åºæº¶æ¶²ï¼å 許該溶液å·å»è³å®¤æº«ä¸¦æ¾ç½®1å°æãç¨ç»çæ£å®å«è©²æº¶æ¶²ä¹ç»çç¶çå §é¢ãçµæ¶è¢«èªå°ä¸¦å¨ç´15åé徿¥è¿å®æãèç±é濾æ¶é該åºé«ï¼å ¶ä¸¦è¢«å®æ§çºç²è¯ç£ºé ¸å»èæ®æ±ãAnother procedure for preparing tianeptine tosylate is provided below. The tianeptine free form II (45.5 mg) was combined with p-toluenesulfonic acid (21.5 mg). Acetonitrile (1.0 mL) was added to the solid mixture. The mixture was gently heated to yield a solution which was allowed to cool to room temperature and allowed to stand for 1 hour. The inner surface of the glass bottle containing the solution was scraped with a glass rod. Crystallization was induced and nearly completed after about 15 minutes. The solid was collected by filtration and characterized as tianeptine tosylate.
測épH弿º¶è§£åº¦æ²ç·çç¨åºï¼Procedure for measuring the pH solubility curve:æ¯åå»èæ®æ±å½¢å¼é½è¢«æ·»å è³ç»çç¶è£¡çç·©è¡æ¶²ä¸ãå å ¥æªææ£ä¸¦éé該ç»çç¶ãå°å¯å°çç»çç¶å¹é¤å¨37âä¸ä¸¦æçºæ··å24å°36å°æãå¹é¤å¾ï¼éé使ç¨0.2umåå¾é濾å¨çé¢å¿éæ¿¾ç§»é¤æº¶æ¶²ä¸çå©é¤åºé«ãæ¸¬éæ¯åæ¿¾æ¶²çpHå¼ï¼ç¶å¾å°è©²æº¶æ¶²ç¨é2å°10å並ç¨HPLC(UV嵿¸¬)åæå»èæ®æ±çå«éãèç±ç²æ«xå°ç·ç¹å°å®æ§è©²å©é¤åºé«ä»¥æ¸¬å®æ¯åç»çç¶ä¸æç¢ççåºé«å½¢å¼(åè¡¡å½¢å¼)ãä¸é¢ç表1å°è¡¨5å¯ä»¥æ¾å°æ¯åå»èæ®æ±å½¢å¼çæ¸æãEach tianeptine form was added to the buffer in a glass vial. Add a stir bar and close the glass bottle. The sealed glass bottles were incubated at 37 ° C and mixed for 24 to 36 hours. After the cultivation, the residual solids in the solution were removed by centrifugal filtration using a 0.2 um pore size filter. The pH of each filtrate was measured, then the solution was diluted 2 to 10 times and the content of tianeptine was analyzed by HPLC (UV detection). The remaining solids were characterized by powder x-ray diffraction to determine the solid form (equal form) produced in each glass vial. Data for each form of tianeptine can be found in Tables 1 through 5 below.
表5ä¸æè¿°çå»èæ®æ±é樣åå¨3種pH弿¢ä»¶(åå§pHå¼1ã2å3)ä¸éè¤è©¦é©ä¸¦å ·æä¸åçè¥ç©ç®æ¨æ¿åº¦ãèä¾ä¾èªªï¼å¨pHå¼çº1çæ¢ä»¶ä¸ï¼æ·»å 60å°70mgçå»èæ®æ±éè³100mM HClä¸ãå°ç¬¬2忍£åèè¨ï¼åæ¯æ·»å 60å°70mgçå»èæ®æ±éè³100mM HClä¸ï¼ç¶å¾åå å ¥é¡å¤çå»èæ®æ±éé¹½ç´å°æ¸æµ®é«åºç¾ã鿍£åæ¯çºäºéå°è¥ç©çé飽åãå æ¤ï¼å çºå¨ç¬¬2忍£åä¸çå»èæ®æ±éæ¿åº¦è¼é«ï¼å¨å»èæ®æ±éé¹½è½æçºåè¡¡å½¢å¼å¾ï¼æçµpHå¼ä¾¿ä¸åãæçµpHå¼åå½¢å¼æå½±é¿æº¶è§£åº¦ãThe tianeptine sodium samples described in Table 5 were tested repeatedly under three pH conditions (initial pH 1, 2 and 3) and had different drug target concentrations. For example, 60 to 70 mg of tianeptine sodium to 100 mM HCl is added at a pH of 1. For the second sample, 60 to 70 mg of tianeptine sodium was added to 100 mM HCl, followed by the addition of additional tianeptine sodium salt until the suspension appeared. This is done to achieve supersaturation of the drug. Therefore, since the concentration of tianeptine sodium in the second sample is high, the final pH value is different after the tianeptine sodium salt is converted into a balanced form. The final pH and form will affect the solubility.
ä¸åå½¢å¼å»èæ®æ±çpH弿º¶è§£åº¦æ¸æç¹ªè£½æ¼å19ä¸ãThe pH solubility data for different forms of tianeptine is plotted in Figure 19.
å¦å19æç¤ºï¼å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©å¾pH 1å°pH 7å ·æå¤§è´ä¸å¹³ç·©ç溶解度æ²ç·ï¼ç¸è¼ä¹ä¸ï¼å ¶ä»å½¢å¼çå»èæ®æ±åå¨ä½æ¼pH 4.5ææé¡¯èè¼é«ç溶解度並å¨é«æ¼pH 4.5徿º¶è§£åº¦å¤§å¹ ä¸éãå°æ¼å£ææ§å¶éæ¾ååèè¨ï¼å¨èè ¸éçå ¨é¨pHç¯åå ·æä¸è´ç溶解度æ¯è¼ä½³çã妿å¨èä¸çå»¶é·æ»¯çæéçºé«è®ç°æ§(鿝å¯è½çï¼ç¹å¥æ¯é£ç©å卿)ï¼éæ¨£çæº¶è§£åº¦æ²ç·å¯è½æ¸å°å»èæ®æ±å¸æ¶çè®ç°æ§ãä¾å¦å¨å»èæ®æ±é¹½é ¸é¹½çæ¡ä¾ä¸ï¼æ¸æé¡¯ç¤ºå¨èä¸çå»¶é·æ»¯çæéå¯è½é æè¼å¿«ç溶解å叿¶ãç¸åå°ï¼è ¸ä¸æº¶è§£åº¦çå¤§å¹ ä¸éå¯è½æ¥èéå¶å ¶æº¶è§£ï¼å æ¤éå¶å¸æ¶ãå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©å ·æç¸å°ä¸è´ç溶解度æ²ç·ï¼è½å¤ æ¸å°é種è®ç°æ§ï¼å°æ¼æ§å¶éæ¾ååå¯è½æ¯æå©çãæº¶è§£åº¦è½é¡¯èå½±é¿è§å¯å°ç叿¶è®ç°æ§ãAs shown in Figure 19, the tianeptine hemisulfate monohydrate has a substantially gradual solubility curve from pH 1 to pH 7, compared to other forms of tianeptine at pH 4.5. Significantly higher solubility and a significant decrease in solubility above pH 4.5. For oral controlled release dosage forms, it is preferred to have a consistent solubility throughout the pH range of the gastrointestinal tract. If the extended residence time in the stomach is highly variable (which is possible, especially in the presence of food), such a solubility profile may reduce the variability in the absorption of tianeptine. For example, in the case of tianeptine hydrochloride, the data show that prolonged residence time in the stomach may result in faster dissolution and absorption. Conversely, a large drop in solubility in the intestine may then limit its dissolution, thus limiting absorption. The tianeptine hemisulfate monohydrate has a relatively consistent solubility profile that can reduce this variability and may be advantageous for controlled release dosage forms. Solubility can significantly affect the observed absorption variability.
實æ½ä¾8Example 8 é«å¤æº¶è§£ç ç©¶In vitro dissolution study使ç¨ä¾èªå¯¦æ½ä¾6å®ç¾©çºF1ãF2åF3çä¸ç¨®é æ¹(é¤äºçç¥ç½é ¸è )製é å å«å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©çé åãä¹ä½¿ç¨é¡ä¼¼å¯¦æ½ä¾6ä¸F1ãF2åF3çé æ¹è£½é é åï¼é¤äºçç¥ç½é ¸è å使ç¨å»èæ®æ±éé¹½ä½çºå代å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©çæ´»æ§ååãå¨ç¾åè¥å ¸II溶é¢åå¨ä¸æ¸¬è©¦éäºé å以è©ä¼°é¹½çå½¢å¼å°è¥ç©éæ¾çå½±é¿ãA tablet containing tianeptine pentasulfate monohydrate was produced using three formulations defined from Example 6 as F1, F2 and F3 except that the citric acid gel was omitted. Tablets were also prepared using a formulation similar to F1, F2 and F3 in Example 6, except that the citrate gel was omitted and the tianeptine sodium salt was used as the active molecule for the substituted tianeptine hemisulfate monohydrate. These tablets were tested in a US Pharmacopoeia II dissolution apparatus to assess the effect of salt form on drug release.
å°F1ãF2åF3é æ¹ä¸æééçå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ãè¾ç¶ç´ (Avicel)PH200åç¾å¤ç§(Methocel)K4Må/æç¾å¤ç§(Methocel)K100å奿¼å¤§å°åé©çç»çç¶ä¸ä½¿ç¨ç¹åæ(Turbula)æ»åæ©æ··å10åéãç¶å¾å å ¥ç¡¬èé ¸é䏦尿»åç©é¡å¤æ··å5åéãå ¸åçç²æ«æ»åç©æ¹é大å°çº4å ãThe required amounts of tianeptine hemisulfate monohydrate, Avicel PH200, and Methocel K4M and/or Methocel K100 in the F1, F2 and F3 formulations, respectively A properly sized glass bottle was mixed for 10 minutes using a Turbula blender. Magnesium stearate was then added and the blend was additionally mixed for 5 minutes. A typical powder blend has a batch size of 4 grams.
使ç¨å ·æ8-mmå¹³é¢åå½¢æ¨¡å ·çå¡å¼(Carver)壿©æåå£ç¸®é å(200±5mg)ï¼å ¸åå£ç¸®åç´çº650kgf(ç´130MPa)ãThe tablet (200 ± 5 mg) was manually compressed using a Carver press with an 8-mm planar circular die with a typical compression force of approximately 650 kgf (about 130 MPa).
忍£å°è£½åå å«å»èæ®æ±éé¹½(ä¾èªä½æ¼åçå©å¸é佩æ¯çCF製è¥å ¬å¸(æ¹èçºHAT-357AB))çé åãA lozenge containing tianeptine sodium salt (from CF Pharmaceuticals, Inc., Budapest, Hungary (batch number HAT-357AB)) was prepared in the same manner.
é²è¡å ©åå®ç¨ç溶解實é©ãå¨ä¸å實é©ä¸ï¼æ¸¬éå å«å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ä¹é å(F1ãF2åF3)çè¥ç©éæ¾ãå¨ç¬¬äºå實é©ä¸ï¼æ¸¬éå å«å»èæ®æ±éé¹½ä¹é å(F1ãF2åF3)çè¥ç©éæ¾ã卿¯å實é©ä¸ï¼ä½¿ç¨ç¾åè¥å ¸æº¶é¢åå¨IIå(æ§³å¼)測éé åçè¥ç©éæ¾ï¼å ·é«ç該åå¨çºç¦éå®(Varian) VK 7000ç¾åè¥å ¸æº¶é¢åå¨II(æè½æ§³)ã使ç¨ç¦éå®å¡é(Varian Cary)50ç´«å¤ç·åå å 度è¨ä»¥å®é樣åãèªåæ³µåçæ¨£å管ç·ä¸ä½¿ç¨10um PEå ¨æµé濾å¨ãTwo separate dissolution experiments were performed. In one experiment, drug release was carried out containing lozenges (F1, F2 and F3) of tianeptine hemisulfate monohydrate. In the second experiment, the drug release of the tablets containing tianeptine sodium salt (F1, F2 and F3) was measured. In each experiment, the drug release of the tablet was measured using the United States Pharmacopoeia Dissolve Instrument Type II (paddle), specifically the Varian VK 7000 United States Pharmacopoeia Dissolving Instrument II (rotary paddle). A Varian Cary 50 UV spectrophotometer was used to quantify the sample. A 10um PE full flow filter was used in the sample line for automatic pumping.
溶解æ¢ä»¶å¦ä¸ï¼The dissolution conditions are as follows:
ä»è³ªåéï¼900mL模æ¬èæ¶²(SGF)ï¼pHå¼ç´1.2Medium and amount: 900mL simulated gastric juice (SGF), pH value about 1.2
900mL模æ¬è ¸æ¶²(SIF)ï¼pHå¼ç´6.5900mL simulated intestinal fluid (SIF), pH about 6.5
廿°£ï¼ç¡å»æ°£Degas: no degassing
容å¨ç¨®é¡ï¼å°åºå®¹å¨1Container type: sharp bottom container 1
溫度ï¼37.3±0.5âTemperature: 37.3 ± 0.5 ° C
æ§³é«åº¦ï¼æ§³åºå°å®¹å¨å°ç«¯ç´10mmPaddle height: about 10mm from the bottom of the paddle to the tip of the container
æªæéçï¼100rpmStirring rate: 100rpm
嵿ª¢ï¼ç®¡ç·ä¸é£çºå¼ï¼å¨208nmçç´«å¤ç·å¸æ¶Detection: continuous in the pipeline, UV absorption at 208nm
æéé»ï¼æ¯6åéç´å°2å°æï¼ç¶å¾æ¯12åéç´å°3å°æï¼ç¶å¾æ¯30åéç´å°30å°ææç´å°æå¤§å¸æ¶é«å建ç«ãTime point: every 6 minutes until 2 hours, then every 12 minutes until 3 hours, then every 30 minutes until 30 hours or until the maximum absorption plateau is established.
æ·»å 2.0gçNaClå7.0mlçæ¿ç¸®HClè³è¶³å¤ æ°´ä¸ä»¥ä½åº1000mlæº¶æ¶²ï¼æ¥è秤éé©ç¶é以製åSGF溶解ä»è³ªã2.0 g of NaCl and 7.0 ml of concentrated HCl were added to sufficient water to make a 1000 ml solution, and then an appropriate amount was weighed to prepare an SGF dissolution medium.
æ·»å 6.8gçç£·é ¸äºæ°«é(KH2 PO4 )å0.66gçæ°«æ°§åé(NaOH)è³è¶³å¤ æ°´ä¸ä»¥ä½åº1000ml溶液(ç¢ççpHå¼ç´6.5)ï¼æ¥è秤éé©ç¶é以製åSIF溶解ä»è³ªãAdd 6.8 g of potassium dihydrogen phosphate (KH 2 PO 4 ) and 0.66 g of sodium hydroxide (NaOH) to sufficient water to make a 1000 ml solution (resulting in a pH of about 6.5), and then weigh the appropriate amount to prepare a SIF dissolution medium. .
æ ¹æä¸é¢è¨ç®æ¨æºåéæ¾æ²ç·ï¼(å¸å 度)/(卿徿éé»çå¸å 度)Ã100%=æ¨æºå溶解çç¾åæ¯The normalized release profile was calculated according to the following: (absorbance) / (absorbance at the last time point) à 100% = percentage of normalized dissolution
å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ç實é©çµæé¡¯ç¤ºæ¼ä¸é¢è¡¨6ä¸ã平忝åé æ¹å¨æ¯åä»è³ªä¸çä¸éè¤å¯¦é©çµæï¼ä»¥ç²å¾è¡¨6ä¸çãéæ¾ç¾åæ¯ãå¼ãThe experimental results of tianeptine hemisulfate monohydrate are shown in Table 6 below. The results of the three replicates of each recipe in each medium were averaged to obtain the "release percentage" values in Table 6.
å»èæ®æ±éé¹½ç實é©çµæé¡¯ç¤ºæ¼ä¸é¢è¡¨7ä¸ã以æ¯åé æ¹å¨æ¯åä»è³ªä¸çä¸éè¤å¯¦é©çµæä½çºè¡¨7ä¸çãéæ¾ç¾åæ¯ãå¼ãThe experimental results of tianeptine sodium salt are shown in Table 7 below. The results of a repeated experiment in each medium for each formulation are taken as the "release percentage" values in Table 7.
å¦éäºçµææç¤ºï¼éé¹½(éæ¶è³ª)å¨SGFåå¨SIF䏿¯åç¡«é ¸é¹½å®æ°´åç©é¹½é¡æ´çºå¯æº¶ãå ·é«å¦å20å21æé¡¯ç¤ºï¼å ¶æç¹ªäºå å«å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ä¹é åèå å«å»èæ®æ±éé¹½ä¹é åçæ¯è¼çµæï¼ç¨é鹽製åçé åéæ¾è¼è¿ éï¼å°¤å ¶å¨æº¶è§£æéçæ©æãAs shown by these results, the sodium salt (amorphous) is more soluble in SGF and in SIF than the hemisulfate monohydrate salt. Specifically, as shown in FIGS. 20 and 21, it depicts a comparison result between a tablet containing tianeptine sulphate monohydrate and a tablet containing tianeptine sodium salt, and a tablet prepared by using a sodium salt is released. Quickly, especially in the early stages of dissolution time.
çºäºé²ä¸æ¥å¼·èª¿ç¨å»èæ®æ±é鹽製åçé ååç¨å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©é¹½é¡è£½åçé åå¨éæ¾ååå¸ä¸çä¸åï¼èªå°æçéæ¾æ²ç·æ¸æä¸åéæ¼æéçä¸éå°æ¸ä»¥è¨ç®åºéæ¾éçãå¦å22(ä½¿ç¨æ¯åé¹½é¡çé åé æ¹F2ä½çºç¯ä¾)æç¤ºï¼ä»¥åç¡«é ¸é¹½å®æ°´åç©é¹½é¡çºåºç¤çé æ¹å¨æ´åæº¶è§£å¯¦é©æéçéæ¾éçæ¯èµ·ä»¥éé¹½çºåºç¤çé æ¹æç©©å®çå¤ãç¶x軸(æé)以尿¸åæ¨åç¾æç¹å¥è½çåºé種差ç°ï¼å¦å23æç¤ºãIn order to further emphasize the difference in release kinetics between tablets prepared with tianeptine sodium salt and tablets prepared with tianeptine sulphate monohydrate salt, time is taken from the corresponding release curve data. The first derivative is calculated to calculate the release rate. As shown in Figure 22 (using the tablet formulation F2 for each salt as an example), the formulation based on the hemisulfate monohydrate salt has a release rate throughout the dissolution experiment compared to the sodium salt based formulation. It will be much more stable. This difference is particularly seen when the x-axis (time) is presented in logarithmic coordinates, as shown in FIG.
實æ½ä¾9Example 9 çç©æª¢å®Biological test å°é¼ ä¸çè¡çºçµææ¸¬è©¦(IP Administration)Behavioral Despair Test in Mice (IP Administration)å°é¼ ä¸çè¡çºçµææ¸¬è©¦ï¼å稱çºå¼·è¿«æ¸¸æ³³å¯¦é©ï¼æ¯ä¸ç¨®åµæ¸¬æ¸¬è©¦ååç©ææé¬±æ´»æ§çæ¥æ§é«å §æª¢å®ãThe behavioral despair test in mice, also known as forced swimming test, is an acute in vivo assay that detects the antidepressant activity of test compounds.
嵿¸¬ææé¬±æ´»æ§çè©²æ¹æ³ä¾ç §æ³¢ç¾é¦ç¹(Porsolt)ç人æè¿°(Behavioural Despair in Mice: A Primary Screening Test for Antidepressants,Arch. Int. Pharmacodyn.,229,327-336,1977 )ãå¨ä¸ç¨®å°é¼ ç¡æ³å¿«ééè«çæ æ³ä¸è¢«å¼·è¿«æ¸¸æ³³çå°é¼ æè®çä¸åãææé¬±åææ¸å°æçºä¸åçæéãThis method of detecting antidepressant activity is described by Porsolt et al. ( Behavioural Despair in Mice: A Primary Screening Test for Antidepressants, Arch. Int. Pharmacodyn., 229, 327-336, 1977 ). Mice that are forced to swim in a situation where a mouse cannot escape quickly will become immobile. Antidepressants reduce the amount of time that persists.
åç©ï¼animal:éä¾é«éç¯åå¨20å°28å ä¹éçéæ§Rj NMRIå°é¼ (è³¼èªæ³åçElevage Janvier)並å¨ééå¾å°å ¶ç½®æ¼éªææ¨é 墿ä¸å¯èªç±åç¨æ°´åé£ç©ç模å é(MACROLON)ç± (25Ã19Ã13cmï¼æ¯ç± ä¸10é»åç©)ä¸ç©©å®è³å°5天(SAFEçå®å11-3)ãå°éäºåç©å®ç½®å¨äººå·¥ç §æ(12å°æ)ä¸21±3âçæ§å¶ç°å¢æº«åº¦ï¼ä¸ç¸å°æ¿åº¦å¨30%å°80%ä¹éãMale Rj NMRI mice (purchased from Elevage Janvier, France) weighing between 20 and 28 grams were transported and placed on wood pulp and freely available for water and food (MACROLON) after shipment. The cage (25 x 19 x 13 cm, 10 animals per cage) was stable for at least 5 days (SAFE Code 11-3). The animals were placed under controlled illumination at 21 ± 3 °C under artificial lighting (12 hours) with a relative humidity between 30% and 80%.
試é©å¾ï¼èç±æ´é²æ¼O2 /CO2 (20%/80%)çæ··åç©ä¸ä¸¦æ¥èç¨CO2 ææ·é ¸å°ææåç©ç§ç²ãAfter the test, all animals were sacrificed by exposure to a mixture of O 2 /CO 2 (20%/80%) followed by CO 2 or a broken neck.
é æ¹å測試ååç©Formulation and test compoundå¨ç ç©¶Aä¸ï¼å°ç½è²ç²æ«çå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©æº¶è§£æ¼ççé£é¹½æ°´ä¸ãå°ç½è²ç²æ«ççå»èæ®æ±é(å¸é¢ä¸æå®)溶解æ¼ççé£é¹½æ°´ä¸ï¼ä¸¦èª¿æ´pHå¼çº8.62ãæ§å¶çµçºåªæ¶²ï¼å³ççé£é¹½æ°´ãå°ä½çºåèååç©çç½è²ç²æ«çé¹½é ¸ä¼ç±³èº(è³¼èªè¥¿æ ¼çª(Sigma))溶解æ¼ççé£é¹½æ°´ä¸ãIn Study A, white powdered tianeptine hemisulfate monohydrate was dissolved in physiological saline. The white powdered tianeptine sodium (commercially available) was dissolved in physiological saline and adjusted to a pH of 8.62. The control group is a vehicle, that is, physiological saline. White powdered imiamine hydrochloride (purchased from Sigma) as a reference compound was dissolved in physiological saline.
å¨ç ç©¶Bä¸ï¼å°ç½è²ç²æ«çå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©æº¶è§£æ¼ççé£é¹½æ°´ä¸ï¼ä¸¦èª¿æ´pHå¼çº8.71(ç ç©¶B)ãæ§å¶çµçºåªæ¶²ï¼å³ççé£é¹½æ°´ãå°ä½çºåèååç©çç½è²ç²æ«çé¹½é ¸ä¼ç±³èº(è³¼èªè¥¿æ ¼çª(Sigma))溶解æ¼ççé£é¹½æ°´ä¸ãIn Study B, white powdered tianeptine hemisulfate monohydrate was dissolved in physiological saline and adjusted to a pH of 8.71 (Study B). The control group is a vehicle, that is, physiological saline. White powdered imiamine hydrochloride (purchased from Sigma) as a reference compound was dissolved in physiological saline.
æ·»å çé æ¹è³¦å½¢åå æ¬1Né¹½é ¸ã2Mæ°«æ°§åéåççé£é¹½æ°´(è³¼èªé¿å¥å¦è£½è¥å ¬å¸(Laboratoire Aguettant))ãFormulation excipients added included 1N hydrochloric acid, 2M sodium hydroxide, and physiological saline (purchased from Laboratoire Aguettant).
å¨ç°å¢æº«åº¦(æ¥è¿+20â)ä¸å²åå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ãå»èæ®æ±éåé¹½é ¸ä¼ç±³èºçé æ¹ãå°åªæ¶²å²å卿¥è¿+4âä¸ã給äºè©¦é©åç©æ½ç¨10毫å/å ¬æ¤é«éçæ¸¬è©¦ååç©ãåèååç©ååªæ¶²ãææé æ¹ç以10毫å/å ¬æ¤é«éçéçµ¦äºæ½ç¨ãThe formulation of tianeptine hemisulfate monohydrate, tianeptine sodium and imiamine hydrochloride was stored at ambient temperature (close to +20 ° C). The vehicle was stored at approximately +4 °C. Test animals were administered 10 ml/kg body weight of test compound, reference compound and vehicle. All formulations were administered in an amount of 10 ml/kg body weight.
檢å®ç¨åºï¼Verification procedure:卿ª¢å®ä¸éå§ï¼é²å ¥æ¸¸æ³³å®¤ç30åéåï¼çµ¦äºæ¯çµä¸çå°é¼ å®ä¸åéçåªæ¶²ãåèååç©ãå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©æå»èæ®æ±éï¼åéå¦ä¸é¢æè©³è¿°ã30åéå¾ï¼å°å°é¼ å奿¾ç½®å¨å«æ10å ¬åæ°´(22â)çåçä¸(é«=24å ¬åï¼ç´å¾13å ¬å)ï¼å¾è©²åçä¸å°é¼ ç¡æ³éè«ãå°å°é¼ ç½®æ¼æ°´ä¸6åé並測éå¾4åéçæçºä¸åæéãæ¯çµç ç©¶10é»å°é¼ ã該試é©ä»¥ç²æ¹å¼é²è¡ãå©ç¨è¦é»åæ å½±å追蹤è»é«ç´éä¸åçæéãAt the beginning of the test, 30 minutes before entering the swimming room, a single dose of vehicle, reference compound, tianeptine hemisulfate monohydrate or tianeptine sodium was administered to each group of mice at the dose as follows Detailed. After 30 minutes, the mice were individually placed in a cylinder containing 10 cm of water (22 ° C) (height = 24 cm; diameter 13 cm) from which the mice could not escape. Mice were placed in water for 6 minutes and the duration of 4 minutes after the measurement was measured. Ten mice were studied in each group. The test was conducted in a blind manner. Use the viewpoint dynamic image to track the time when the software records are not moving.
ç ç©¶è¨è¨ï¼Research design:å¨å ©åè¡çºçµææª¢å®çç ç©¶ä¸è©ä¼°å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ï¼å¦ä¸é¢æè©³è¿°ãThe tianeptine hemisulfate monohydrate was evaluated in two studies of behavioral despair assays as detailed below.
å¨ç ç©¶Aä¸ï¼å çµä¸çæ¯ä¸çµé½åé 10é»åç©ãä¸çµä»¥å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©èçï¼åå¥çµ¦äº100mg/kgã150mg/kgå200mg/kgãå¨è©¦é©30åéåä»¥è ¹è æ³¨å°çµ¦äºå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ï¼ä¸¦è給äºåªæ¶²çåç©ä½æ¯è¼ãä¸çµä»¥å»èæ®æ±éèçï¼å¨è©¦é©30åéåä»¥è ¹è æ³¨å°çµ¦äº150mg/kgãä¸çµä»¥åèååç©(é¹½é ¸ä¼ç±³èº)èçï¼å¨è©¦é©30åéåä»¥è ¹è æ³¨å°çµ¦äº32mg/kgï¼ç¬¬å çµä»¥æ§å¶åªæ¶²èçï¼å¨è©¦é©30åéåä»¥è ¹è æ³¨å°çµ¦äºãIn Study A, 10 animals were assigned to each of the six groups. The three groups were treated with tianeptine, hemisulfate monohydrate, and administered at 100 mg/kg, 150 mg/kg, and 200 mg/kg, respectively. The tianeptine pentasulfate monohydrate was administered by intraperitoneal injection 30 minutes before the test and compared with the animals to which the vehicle was administered. One group was treated with tianeptine sodium, and 150 mg/kg was administered intraperitoneally 30 minutes before the test. One group was treated with a reference compound (imamine hydrochloride), and 32 mg/kg was administered intraperitoneally 30 minutes before the test, and the sixth group was treated with a control vehicle, and administered intraperitoneally 30 minutes before the test.
å¨ç ç©¶Bä¸ï¼åçµä¸çæ¯ä¸çµé½åé 10é»åç©ãå ©çµä»¥å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©èçï¼åå¥çµ¦äº30mg/kgå60mg/kgãå¨è©¦é©30åéåä»¥è ¹è æ³¨å°çµ¦äºå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ï¼ä¸¦è給äºåªæ¶²çåç©ä½æ¯è¼ã第ä¸çµçåç©ä»¥åèååç©(é¹½é ¸ä¼ç±³èº)èçï¼å¨è©¦é©30åéåä»¥è ¹è æ³¨å°çµ¦äº32mg/kgï¼ç¬¬åçµä»¥æ§å¶åªæ¶²èçï¼å¨è©¦é©30åéåä»¥è ¹è æ³¨å°çµ¦äºãIn Study B, 10 animals were assigned to each of the four groups. The two groups were treated with tianeptine hemisulfate monohydrate and given 30 mg/kg and 60 mg/kg, respectively. The tianeptine pentasulfate monohydrate was administered by intraperitoneal injection 30 minutes before the test and compared with the animals to which the vehicle was administered. The animals in the third group were treated with the reference compound (imamine hydrochloride), and 32 mg/kg was administered intraperitoneally 30 minutes before the test, and the fourth group was treated with control vehicle, and administered intraperitoneally 30 minutes before the test.
çµæ(ç ç©¶A)ï¼Results (Study A):æ ¹æä¸è¿°çç¨åºæ¸¬è©¦åç©ï¼æ¸¬éæçºä¸åçæé䏦忼ä¸è¡¨ã使ç¨å¸å¾é tåæª¢å®è©ä¼°æ¸¬éçµæï¼å¸¶æ*çå¼è¡¨ç¤ºå¨çµ±è¨ä¸æé¡¯èå·®ç°ï¼å ¶på¼å°æ¼0.001ãAnimals were tested according to the procedure described above and the duration of the measurements was measured and listed in the table below. The measurement results were evaluated using the Stuart t-character test, with a value of * indicating a statistically significant difference with a p-value less than 0.001.
100mg/kgã150mg/kgå200mg/kgçå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ï¼è給äºåªæ¶²çåç©ç¸æ¯ï¼æ¸å°äºæçºä¸åçæé(-59%ã-43%å-46%ï¼påå¥å°æ¼0.001)ãææåç©é¡¯ç¾åºå²ç¹åå¸(Straub)èå°¾åæã髿´»åæ§åç¹åè¡çºãå¹¾é»åç©ææ¸¸æ³³å°é£ï¼å ©é»åç©è¢«æ·¹æ»ï¼ä¸é»å¨100mg/kgçµï¼å¦ä¸é»å¨200mg/kgçµãéäºåç©çæ¸æä¸¦æªå å«å¨è©²çµæä¸ã100 mg/kg, 150 mg/kg, and 200 mg/kg of tianeptine hemisulfate monohydrate reduced the duration of immobility (-59%, -43%, and -46%) compared to animals given vehicle. , p is less than 0.001). All animals showed a Straub tail reaction, high activity and circling behavior. Several animals had difficulty swimming; two animals were drowned, one in the 100 mg/kg group and the other in the 200 mg/kg group. The data for these animals are not included in the results.
150mg/kgçå»èæ®æ±éï¼è給äºåªæ¶²çåç©ç¸æ¯ï¼å樣æ¸å°äºæçºä¸åçæé(-50%ï¼på°æ¼0.001)ãææåç©é¡¯ç¾åºå²ç¹åå¸(Straub)èå°¾åæã髿´»åæ§åç¹åè¡çºãå¹¾é»åç©ææ¸¸æ³³å°é£ï¼å ©é»åç©è¢«æ·¹æ»ï¼èéäºåç©çæ¸æä¸¦æªå å«å¨è©²çµæä¸ã150 mg/kg of tianeptine sodium also reduced the duration of immobility (-50%, p less than 0.001) compared to animals given vehicle. All animals showed a Straub tail reaction, high activity and circling behavior. Several animals had difficulty swimming; two animals were drowned and the data for these animals were not included in the results.
ç¸è¼ä¹ä¸ï¼ä»¥é¹½é ¸ä¼ç±³èº(32mg/kg)èççåç©ï¼è給äºåªæ¶²çæ§å¶çµç¸æ¯ï¼ä¹æ¸å°äºæçºä¸åçæé(-68%ï¼på°æ¼0.001)ãIn contrast, animals treated with imamine hydrochloride (32 mg/kg) also reduced the duration of onset (-68%, p less than 0.001) compared to the vehicle-administered control group.
çµæ(ç ç©¶B)ï¼Results (Study B):æ ¹æä¸è¿°çç¨åºæ¸¬è©¦åç©ï¼æ¸¬éæçºä¸åçæé䏦忼ä¸è¡¨ã使ç¨å¸å¾é tåæª¢å®è©ä¼°æ¸¬éçµæï¼å¸¶æ*çå¼è¡¨ç¤ºå¨çµ±è¨ä¸æé¡¯èå·®ç°ï¼å ¶på¼å°æ¼0.001ãAnimals were tested according to the procedure described above and the duration of the measurements was measured and listed in the table below. The measurement results were evaluated using the Stuart t-character test, with a value of * indicating a statistically significant difference with a p-value less than 0.001.
30mg/kgå60mg/kgçå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ï¼è給äºåªæ¶²çåç©ç¸æ¯ï¼æ¸å°äºæçºä¸åçæé(-86%å-83%ï¼påå¥å°æ¼0.001)ãå¨å ©ååéä¸ï¼è©¦é©ååè§å¯å¨ææ10é»å°é¼ 䏿ç°å¸¸è¡çº(å æ¬å²ç¹åå¸(Straub)èå°¾åæåç¹åè¡çº)ã30 mg/kg and 60 mg/kg of tianeptine hemisulfate monohydrate reduced the duration of persistence (-86% and -83%, p less than 0.001, respectively) compared to animals given vehicle. In both doses, abnormal behavior was observed in all 10 mice before the test (including Straub's tail-tailing and circling behavior).
ç¸è¼ä¹ä¸ï¼ä»¥é¹½é ¸ä¼ç±³èº(32mg/kg)èççåç©ï¼è給äºåªæ¶²çæ§å¶çµç¸æ¯ï¼ä¹æ¸å°äºæçºä¸åçæé(-88%ï¼på°æ¼0.001)ãIn contrast, animals treated with imamine hydrochloride (32 mg/kg) also reduced the duration of persistence (-88%, p less than 0.001) compared to the vehicle-administered control group.
ç ç©¶AåBççµæé¡¯ç¤ºï¼è ¹è 注å°åéç¯åå¨30mg/kgå°200mg/kgéçå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©å卿顿æé¬±åæ´»æ§ãThe results of studies A and B show that there is an antidepressant activity in the tianeptine hemisulfate monohydrate administered intraperitoneally at doses ranging from 30 mg/kg to 200 mg/kg.
實æ½ä¾10Example 10 è¨åºè©¦é©ç ç©¶ï¼å»èæ®æ±é æ¹çè¥ç©ååå¸Clinical trial study, pharmacokinetics of tianeptine formulationä¸è¿°è¨åºè©¦é©è©ä¼°äºå¨é æ¹ç¯©é¸ä¸å®ä¸åéçè¥ç©ååå¸(PK)ï¼å ¶çºéç²ã鍿©ãåèçé åºãåæäº¤ååé½¡ç¾¤ï¼æ¯åèçé åº(æ¨£æ¬æ¸çº3)åºæ¼é»è ¦ç¢çç鍿©æç¨ï¼ä»¥é¨æ©é åºæ¥åä¸åå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©æ§å¶éæ¾(CR)é åé æ¹å25mgåä¸å25mgåé(å ©å12.5mgé å)çå¸å®å»èæ®æ±éSTABLONç«å³éæ¾(IR)é æ¹ãThe following clinical trials evaluated a single dose of pharmacokinetics (PK) in a formulation screen that was double-blind, random, four-processing sequence, four-phase cross-age group, and each processing sequence (sample number 3) was computer-generated A random schedule of commercially available tianeptine in a random order of three 25 mg of each of the tianeptine monosulfate monohydrate controlled release (CR) lozenge formulations and one 25 mg dose (two 12.5 mg lozenges) Sodium STABLON Immediate release (IR) recipe.
åé12åå試è è³è©¦é©ä¸ãå試è çºå¾21æ²ä¸ç´å°55æ²çå¥åº·ç·æ§æå¥åº·éåºä¹³ä¸å¥³æ§ãè¨åºåå¸ãè¡æ¶²å¸åå°¿åææ³æ¸¬è©¦ç卿£å¸¸å¯å 許ççéå §(å¦æè¶ åºç¯åï¼æè¦çºå ¶è¨åºä¸æç¾©è¢«æé¤)ï¼ä¸¦å¨æ¥å第ä¸åç ç©¶è¥ç©ç21å¤©å §é²è¡ã身é«è³ªéææ¸å¾18kg/m2 ä¸ç´å°30kg/m2 ãå¨ä»¥ä»°è¥å§¿ä¼æ¯5åéå¾ï¼çå½å¾µè±¡æ£å¸¸(95mm<æ¶ç¸®å£<140mm Hgã50mm Hg<èå¼µå£<90mm Hgã45bpm<å¿è·³éç<90bpm)ã12-å°ç¨èªåå¿é»å(ECGï¼éå®å ¨æ§å³ææå³å°é»æ»¯å¯è¢«æ¥å)æ£å¸¸ï¼120ms<PR<210msãQRS<120msãQTc(巴澤ç¹(Bazett))ç·æ§å°æ¼çæ¼430msecä¸å¥³æ§å°æ¼çæ¼450msecãè¥å試è å¨çµ¦äºç ç©¶è¥ç©å¾ä¸éå§ç6å°ææªç¶æ·ååã宿ææè¨ç«çè©ä¼°ãæªéå°éåºæ¨æºã並ä¸å¨åèçæéå宿24å°æPKè¡æ¶²æ¨£æ¬æ¡éï¼åè¦çºè©²å試è å®æè©²ç ç©¶ãTwelve subjects were recruited to the trial. The subjects were healthy males or healthy non-lactating women from 21 years old to 55 years old. Clinical chemistry, hematology, and urinalysis tests are within normal allowable limits (if they are out of range, they should be considered clinically excluded) and are performed within 21 days of receiving the first study drug. The body mass index is from 18 kg/m 2 up to 30 kg/m 2 . After resting for 5 minutes in a supine position, the signs of life were normal (95 mm < systolic blood pressure < 140 mm Hg, 50 mm Hg < diastolic blood pressure < 90 mm Hg, 45 bpm < heart rate < 90 bpm). 12-lead automatic electrocardiogram (ECG; incomplete right bundle branch block can be accepted) normal: 120ms<PR<210ms, QRS<120ms, QTc (Bazett) male is less than or equal to 430msec and female is less than Equal to 450msec. If the subject does not experience vomiting 6 hours after the administration of the study drug, completes the evaluation of all plans, does not meet the exit criteria, and completes the 24-hour PK blood sample collection during the four treatment periods, the subject is considered to be the subject Complete the study.
ç ç©¶è¥ç©è³è¨å管çï¼Research drug information and management:å å«å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©çè¨åºé æ¹ä¸å¤©æç¨ä¸æ¬¡ï¼æ§å¶éæ¾åºè³ªé åç±ä½çºé度æ§å¶èåç©çç¾¥ä¸åºç²åºçºç¶ç´ åä½çºå¯ä¾µèå¡«æçå¾®æ¶åçºç¶ç´ æçµæãç ç©¶ä¸ä½¿ç¨ä¸ç¨®CRé åé æ¹(å¦è¡¨6䏿æä¾çF1ãF2åF3ï¼å ¶é«å¤éæ¾æ²ç·åå¥å¨æ¥è¿9ã12å15å°ææé¡¯ç¤ºåº90%çè¥ç©éæ¾)ãé¤äºéæ¾æ§å¶èåç©ç¾å¤ç§(Methocel)ç¹ç´K100 LV CRæ¯ä¸ç¾å¤ç§(Methocel)ç¹ç´K4M CRçæ¯ç以å¤ï¼éä¸ç¨®é æ¹ççµæç©å¤§è´ç¸åãä¸ç¨®CRé æ¹é½æ¯ç½è²å°æ¥è¿ç½è²çåå½¢é åï¼å å«25mgçå»èæ®æ±(ç¸ç¶æ¼28.84mgçå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©)ã宿 °åé åä¿ä¸å«å»èæ®æ±çé åé åãSTABLONIRé å(è³¼èªæ¾³æ´²)çºå ©å12.5mgç½è²å°æ¥è¿ç½è²çé å(ç¸½å ±25mg)ï¼çºé·å®ä¸çç¢åãå°å ¨é¨çå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©ç ç©¶æ§ç¢åå²åæ¼é©ç¶çä¸éæ¿éï¼æº«åº¦å¨15âå°25âä¹éï¼ä¸¦ç±è©²ç ç©¶è è² è²¬ãSTABLONIRé ååæ ¹æé·å®å è£å²åï¼ä¸è¦å¨é«æ¼25âä¸å²åï¼é¿å å ç §ãThe clinical formulation containing tianeptine hemisulfate monohydrate is administered once a day, and the controlled release matrix tablet consists of hydroxypropyl methylcellulose as a rate controlling polymer and microcrystalline cellulose as an erosable filler. . Three CR lozenge formulations were used in the study (such as F1, F2, and F3 provided in Table 6, which showed 90% drug release at approximately 9, 12, and 15 hours, respectively). The composition of the three formulations was approximately the same except for the ratio of the release control polymer Methocel premium K100 LV CR to the Methocel premium K4M CR. The three CR formulations were white to nearly white round lozenges containing 25 mg of tianeptine (equivalent to 28.84 mg of tianeptine hemisulfate monohydrate). The placebo tablet is a flavonoid-free lozenge. STABLON IR lozenges (purchased from Australia) were two 12.5 mg white to nearly white lozenges (25 mg total) and were on sale. The entire tianeptine hemisulfate monohydrate research product was stored in a suitable locked room at a temperature between 15 ° C and 25 ° C and was the responsibility of the investigator. STABLON IR tablets are stored according to the sales package: do not store above 25 ° C; avoid light.
ææç ç©¶è¥ç©é½æ¯å¨ç¬¬1ã4ã7å10天æ¥è¿æ©ä¸8é»å°10é»ä¹éæï¼å¨ç¦é£æ¢ä»¶ä¸ä»¥240mLçéç¢³é ¸æ°´è¢«æç¨ãçºäºä¿æçµ¦äºçèçæ¯çä¸è¦çï¼å試è è¢«è¦æ±éä¸ç¼çåå¼µéå´å·´ï¼å°æè¿°å ©åé å(2å12.5mgçSTABLONé åæ1å25mgçCRé æ¹å ä¸1åé åç宿 °åé å)æ¾ç½®å¨ä»åçèé ä¸ä¸¦è¦æ±ä»ååä¸ãç ç©¶è¥ç©è¢«æ´ååå ¥ï¼èæ²æè¢«åå¼ãåå²ã溶解æå£ç¢ãå¾çµ¦äºç ç©¶è¥ç©éå§ä¸ç´å°çµ¦äºç ç©¶è¥ç©4å°æå¾ï¼å試è åç¶æç´ç«å§¿å¢ã給è¥å¾ç´2å°ææ(ä½ä¸æ©æ¼)ï¼å試è å䏿¯æ°´(ç´240mL)ï¼å¾éæéå§ä¸ç´å°ä¹å¾ï¼åæ°´é½æ¯è¢«å 許çãæå ¥è¥ç©4å°æå¾ï¼ç¬¬ä¸å¤©ä¾ææ¨æºåçåé¤çµ¦ææçå試è ãææçµ¦è¥å¤©çåé¤é½ç¸åãå¨CRFä¸ç´éåé¤åæé¤ç¢ºåéå§çæé(給è¥å¾9å°æ)ï¼ä»¥åä»»ä½éæ¼åé¤åæé¤æéçåå·®ãå¨ç ç©¶æéï¼ç¦æ¢ä½¿ç¨ç ç©¶è¥ç©ä»¥å¤çèæ¹æéèæ¹è¥(å æ¬ç¶çç´ åèè¥è¼å©ç©)ï¼é¤äºä¹é¯èºè¯é ãä¹é¯èºè¯é 被å 許使ç¨å°æ¯åç ç©¶è¥ç©éå§çµ¦äºç3天åãå¨ç ç©¶æéï¼å è¨±ä½¿ç¨æ¯å¤©æé«3åç500-mgä¹é¯èºè¯é æ²»çé çæå ¶ä»ç¼çï¼ä½æ¯é±ä¸å¾è¶ é3å ãAll study medications were taken at 240 mL of non-carbonated water under fasting conditions on days 1, 4, 7 and 10, between 8 am and 10 am. In order to keep the treatment given invisible, the subject was asked to close the eyes and open the mouth, the two lozenges (2 12.5 mg STABLON) A lozenge or a 25 mg CR formula plus a combined placebo lozenge was placed on their tongue and asked to swallow. The study drug was swallowed entirely without being chewed, divided, dissolved or crushed. Subjects maintained an upright position from the time the study drug was administered until 4 hours after the study drug was administered. At about 2 hours after dosing (but not earlier than), the subject drank a glass of water (about 240 mL); from this point on until after, drinking water was allowed. Four hours after the ingestion of the drug, a standardized lunch was served to all subjects on the first day. The lunch is the same on all days of dosing. Record the exact start time for lunch and dinner in the CRF (9 hours after dosing) and any deviations from lunch and dinner time. Prescription or over-the-counter medications (including vitamins and herbal supplements) other than research medications, except acetaminophen, are prohibited during the study period. Acetamine phenol was allowed to be used 3 days before the start of each study drug. During the study period, up to 3 doses of 500-mg acetaminophen per day were allowed to treat headache or other pain, but not more than 3 grams per week.
å¨ç¬¬1ã4ã7å10天給äºå試è ç¨è¥ï¼å¨ç¬¬17±2å¤©å §é²è¡å¾çºè¦å¯ãSubjects were administered on days 1, 4, 7 and 10; follow-up visits were performed within 17 ± 2 days.
è¥ç©ååå¸(PK)è©ä¼°Pharmacokinetic (PK) assessmentå¨ç¬¬1ã4ã7å10天給äºå試è ç¨è¥ï¼ä¸¦å¨ç¬¬1ã2ã4ã5ã7ã8ã10å11天æ¡éè¡æ¶²æ¨£æ¬(æ¯æ¬¡4.5mL以ç²å¾ç´2mLçè¡æ¼¿)ä½çºPKè©ä¼°ãå ·é«ä¾èªªï¼å¨æ¯å給è¥å¤©ç給è¥å(t=0)å給è¥å¾ç¬¬0.25ã0.5ã1.0ã1.5ã2.0ã2.5ã3.0ã4.0ã6.0ã8.0ã10.0ã12.0ã14.0ã16.0ã24.0ã28.0ã32.0å36.0å°ææ¡é樣æ¬ãå°éäºæ¨£æ¬å²åå¨-20âä¸ãSubjects were administered on days 1, 4, 7 and 10 and blood samples were taken on days 1, 2, 4, 5, 7, 8, 10 and 11 (4.5 mL each time to obtain approximately 2 mL of plasma) As a PK assessment. Specifically, before administration (t=0) on each administration day and at 0.25, 0.5, 1.0, 1.5, 2.0, 2.5, 3.0, 4.0, 6.0, 8.0, 10.0, 12.0, 14.0, after administration, Samples were taken at 16.0, 24.0, 28.0, 32.0, and 36.0 hours. These samples were stored at -20 °C.
å¨ICONç¼å±è§£æ±ºæ¹æ¡(æ¼å¾¹æ¯ç¹ï¼è±å)çç£ç£ä¸ï¼ä½¿ç¨ç¶éé©è䏿æçæ¶²ç¸å±¤æè³ªèå/質èå(LC-MS/MS)çç©åææ³åæè¡æ¼¿æ¨£æ¬ä»¥æ¸¬å®å»èæ®æ±æ¿åº¦ãå»èæ®æ±çå®é極é(LoQ)çº5ng/mLãPlasma samples were analyzed using a validated and sensitive liquid chromatography mass spectrometer/mass spectrometer (LC-MS/MS) bioassay to determine the tianeptine concentration under the supervision of the ICON Development Solutions (Manchester, UK). The quantitative limit (LoQ) of tianeptine was 5 ng/mL.
æ¸æåæï¼data analysis:ææå¯å¾çæ¸æé½å å«å¨æ¸æå表ä¸ãAll available data is included in the data list.
PKåæçµå å«æææ¥åéè³å°ä¸åç ç©¶è¥ç©ä¸éæ¼ç ç©¶è¥ç©çæå ¥æ²æä¸»è¦åå·®çå試è ãææå¯å¾çPKæ¸æé½è¢«ä½¿ç¨ã該åæä¸å æ¬å¨ä¸äºæé(ä½ä¸æ¯å ¨é¨æé)ç¼ºå¤±æ¸æçå試è ãThe PK analysis group included all subjects who had received at least one dose of study drug and had no major deviations in the intake of the study drug. All available PK data is used. Subjects with missing data during some (but not all) periods were included in the analysis.
åºæ¼åå¥çè¡æ¼¿æ¿åº¦-æéæ¸æï¼ä½¿ç¨å¯¦éæ¡æ¨£æéä¼°è¨æ¯åèçä¸çä¸åå»èæ®æ±PK忏ï¼The following tianeptine PK parameters in each treatment were estimated using actual sampling times based on individual plasma concentration-time data:
Cmax =è§å¯å°çæå¤§è¡æ¼¿æ¿åº¦(ng/mL)C max = maximum plasma concentration observed (ng/mL)
Tmax =éå°è§å¯å°çæå¤§è¡æ¼¿æ¿åº¦çæé(å°æ)T max = time to reach the maximum plasma concentration observed (hours)
Tlag =å¨çµ¦è¥æéå第ä¸ååæç©æ¿åº¦è¶ éå®é極éçæéä¹éçéé(å°æ)T lag = interval between the time of administration and the time when the first analyte concentration exceeds the limit of quantitation (hours)
AUC24h =å¨çµ¦è¥éé(24å°æï¼åªæCRé æ¹)ä½¿ç¨æ¢¯å½¢æ³è¨ç®è¡æ¼¿æ¿åº¦ç¸å°æéæ²ç·ä¸çé¢ç©(ng.h/mL)AUC 24h = area under the plasma concentration versus time curve (ng.h/mL) using the trapezoidal method at the dosing interval (24 hours, CR formulation only)
AUClast =è¡æ¼¿æ¿åº¦-æéæ²ç·ä¸å¾çµ¦è¥å¾0å°tlast å°æçé¢ç©ï¼ä»¥ç·æ§æ¢¯å½¢æ±åæ³è¨ç®AUC last = area under the plasma concentration-time curve from 0 to t last hour after administration, calculated by linear trapezoidal summation
AUCâ =è¡æ¼¿æ¿åº¦-æéæ²ç·ä¸å¾çµ¦æé0å°ç¡éæéçé¢ç©ï¼æ ¹æä¸åæ¹ç¨å¼è¨ç®ï¼AUCâ =AUClast +Clast /λz (ng.h/mL)ï¼è¥t1/2,λ å¯è©ä¼°åå ±å°AUCâ AUC â = area from time 0 to infinite time under the plasma concentration-time curve, calculated according to the following equation: AUC â = AUC last + C last / λ z (ng.h/mL); if t 1/2, λ Evaluable to report AUC â
%AUCâ,ex =ç¨å¤æ¨æ³å¾å°çAUCâç¾åæ¯ï¼ä»¥ä¸åæ¹ç¨å¼è¨ç®ï¼%AUC â, ex = percentage of AUCâ obtained by extrapolation, calculated by the following equation:
λz =èæ²ç·çµç«¯é¨åç¸éç第ä¸åæéç常æ¸ï¼ç±è¥ç©æ¿åº¦-æéæ²ç·çµç«¯å°æ¸-ç·æ§é段çè² æçææ±ºå®Î» z = the first reaction rate constant associated with the terminal portion of the curve, determined by the negative slope of the log-linear phase of the drug concentration-time curve
t1/2,λ =èåå°æ¸è¥ç©æ¿åº¦-æéæ²ç·çµç«¯æç(λz )ç¸éçæ¶é¤åè¡°æï¼è¨ç®çº0.693/λz t 1/2,λ = elimination half-life associated with the semi-log drug concentration-time curve terminal slope (λ z ), calculated as 0.693/λ z
Frel =ç¸å°çç©å©ç¨åº¦ï¼çµ¦äºçè¥ç©åéè½éå°å ¨èº«çç¾åæ¯ï¼è¨ç®çºï¼[(AUCâ(test) /AUCâ(ref) )*(D(ref) /D(test) )]*100ï¼åèèççºééèå §çµ¦è¥ã試é©ï¼F1ãF2åF3 CRé æ¹ï¼åèï¼IRé æ¹ãF rel = relative bioavailability: The dose of the drug administered can reach the percentage of the whole body, calculated as: [(AUC â(test) /AUCâ (ref) )*(D (ref) /D (test) )]*100 The reference treatment is non-intravenous administration. Test: Formulations for F1, F2 and F3 CR; Reference: IR formulation.
使ç¨éé室åæè¨ç®å»èæ®æ±çPK忏ã實éçèçå¾è¡æ¶²æ¡æ¨£æéè¢«ä½¿ç¨æ¼ææçæçµPKåæä¸ãä½¿ç¨æ¯åæµç¨æéè¨ç®å¹³åè¡æ¼¿æ¿åº¦ä»¥ä½çºå形顯示ã使ç¨ç¶éé©èçè¥ç©ååå¸åçµ±è¨è»é«é²è¡PKåæåæè¿°çµ±è¨ãThe PK parameters of tianeptine were calculated using non-compartmental analysis. The actual post-treatment blood sampling time was used in all final PK analyses. The mean plasma concentration was calculated using each process time as a graphical display. PK analysis and narrative statistics were performed using validated pharmacokinetics and statistical software.
ç´æ¥å¾æ¸æä¸åCmax åTmax å¼ãè¨ç®è¡æ¼¿æ¿åº¦-æéæ²ç·çµç«¯å°æ¸-ç·æ§é段çè² æç以ä½çºæ¶é¤éç常æ¸Î»z ãç®è¦æª¢æ¥æ¿åº¦ç¸å°æéçåå°æ¸åä»¥æ±ºå®æ¯åå試è ååéæä½¿ç¨çæ¸æç¯åãè³å°ä½¿ç¨ä¸åæ¸æé»ä¾ä¼°è¨Î»z ãç¨ä¸è¿°æ¹æ³è¨ç®å ¶ä»çPK忏ãTake the C max and T max values directly from the data. The negative slope of the log-linear phase of the plasma concentration-time curve is calculated as the elimination rate constant λ z . A semi-logarithmic plot of concentration versus time was visually inspected to determine the range of data used for each subject and dose. Use at least three data points to estimate λ z . Calculate other PK parameters using the above method.
çµæï¼result:å¨åéç12ä½å試è ä¸ï¼12ä½é½å®æäºè©²ç ç©¶ãå¹³å年齡çº37.7æ²ï¼ç¯åå¨23æ²å°55æ²éã12ä½å試è åçºç½ç¨®äººä¸åæ¸(50.0%)çºç·æ§ãå¨4åèçé åºä¸ï¼12ä½å試è ç人å£ååºç·ç¹å¾µæ¯ç¸ä¼¼çãæ²ææµç¨å差干æ¾ç ç©¶æ¸æçè§£è®ï¼ä¹æ²æå試è å çºåå·®è被æé¤å¨åæå¤ãOf the 12 subjects recruited, 12 completed the study. The average age is 37.7 years and ranges from 23 to 55 years old. Twelve subjects were all Caucasian and half (50.0%) were male. The population and baseline characteristics of the 12 subjects were similar in the 4 treatment sequences. No process deviations interfered with the interpretation of the study data, and no subjects were excluded from the analysis due to bias.
ææç給è¥å樣æ¬åå¨çµ¦äºç ç©¶è¥ç©ç´12å°22åéååå¾ï¼ä¸¦éå¶èçå¾å¯¦éæ¡æ¨£æéèæç¨æ¡æ¨£æéä¹éç(ç¸å°)å·®ç°ï¼è©²å·®ç°ä¸è¢«è¦ä½æ¯æé¤çç±ãåªæç¶ç¨æ¼ä¼°è¨çµç«¯æ¶é¤éæ®µçæ±ºå®ä¿æ¸(R2 adj )髿¼0.80æï¼æè¨ç®æ¶é¤éç常æ¸Î»z ååè¡°æt1/2,λ ãè¥AUCâ,ex çç¾åæ¯è¶ é20%ï¼åè¨ç®AUCâ ï¼ä½å ¶ä¸å æ¬å¨æè¿°çµ±è¨å¸ä¸ãAll pre-dose samples were taken approximately 12 to 22 minutes prior to administration of the study drug and limited the (relative) difference between the actual sampling time after processing and the scheduled sampling time, which is not considered a reason for exclusion. The elimination rate constant λ z and the half-life t 1/2, λ are calculated only when the decision coefficient (R 2 adj ) for estimating the terminal elimination phase is higher than 0.80. If AUC â, the percentage of ex exceeds 20%, then AUC â is calculated, but it is not included in the narrative statistics.
4種èççå¹³åè¡æ¼¿æ¿åº¦-æéæ²ç·é¡¯ç¤ºæ¼å24ä¸ï¼æ¿åº¦å°ºåº¦çºç·æ§ãä¸é¢è¡¨10ååºåå¥çµ¦äºå¦åSTABLONIRé åé æ¹ç25mgå»èæ®æ±ä»¥åå»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©CRé åé æ¹F1ãF2åF3å¾çå¹³å(±SD)å»èæ®æ±è¥ç©ååå¸åæ¸ãThe mean plasma concentration-time curves for the four treatments are shown in Figure 24, and the concentration scale is linear. Table 10 below is given separately as STABLON Mean (±SD) tianeptine pharmacokinetic parameters after formulation of 25 mg of tianeptine and narnatristine hemisulfate monohydrate CR tablet formulations of IR tablets.
Cmax çºæå¤§è¡æ¼¿æ¿åº¦ï¼Tmax çºéå°æå¤§è¡æ¼¿æ¿åº¦çæéï¼AUCâ çºè¡æ¼¿æ¿åº¦-æéæ²ç·ä¸å°ç¡éæéçé¢ç©ï¼AUClast çºè¡æ¼¿æ¿åº¦-æéæ²ç·ä¸å¾çµ¦è¥å¾0å°tlast å°æçé¢ç©ï¼çºæ¶é¤åè¡°æï¼Frel çºç¸å°çç©å©ç¨åº¦ï¼BQLæä½æ¼å®é極éï¼Tmax ï¼ä¸ä½æ¸(æå°å¼ï¼æå¤§å¼)C max is the maximum plasma concentration; T max is the time to reach the maximum plasma concentration; AUC â is the area under the plasma concentration-time curve to infinity; AUC last is the plasma concentration-time curve from 0 to t last hour after administration Area To eliminate half-life; F rel is relative bioavailability; BQL means below quantitative limit; T max : median (min - max)
éé ç ç©¶ççµæå¯ä»¥æ¸ç´å¦ä¸ãå¨å£æSTABLONIRé åé æ¹å¾ï¼å»èæ®æ±è¢«å¿«é叿¶ä¸¦å¨çµ¦äºç¨è¥å¾ç1å°2å°æé¡¯ç¤ºåºè¡æ¼¿æ¿åº¦å³°å¼ãå»èæ®æ±è¡æ¼¿æ¿åº¦é¨èç´3å°æççµç«¯åè¡°æèè¡°æ¸ãThe results of this study can be summarized as follows. Oral STABLON After the IR tablet formulation, tianeptine was rapidly absorbed and showed a peak plasma concentration 1 to 2 hours after administration. The tianeptine plasma concentration decays with a terminal half-life of about 3 hours.
ææä¸ç¨®å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©CRé æ¹(F1ãF2åF3)å¨0.3å°0.4å°æç延鲿éå¾é¡¯ç¤ºåºè¡æ¼¿æ¿åº¦ç¨åº¦ï¼å¨ç´2.5å°3å°ææå³°å¼(F3æ¯F1åF2ç¨é²)ãF1çæå¤§å»èæ®æ±æ¿åº¦ç´æ¯STABLONIRé æ¹çä½3åï¼èF2åF3çå»èæ®æ±è¡æ¼¿æ¿åº¦å³°å¼æ¯STABLONIRé æ¹çä½4å°5åãå»èæ®æ±è¡æ¼¿æ¿åº¦è¡°æ¸å°ç´8å°æï¼ç¶å¾éæ¥ä¸åå°ç¬¬äºåæ¿åº¦å³°å¼ï¼å ¶ç´å¨çµ¦è¥å¾12å°æè¢«è§å¯å°ãéå第äºè¡æ¼¿æ¿åº¦å³°å¼ç´çºF1åå§Cmax ç0.4åï¼ä»¥åF2åF3Cmax ç0.5å°0.6åãå¨éå第äºå³°å¼å¾ï¼è¡æ¼¿æ¿åº¦é²ä¸æ¥é¨èä¼°è¨çåè¡°æè¡°æ¸ï¼å ¶å¨F1è¨ç®çº5.3å°æãF2è¨ç®çº5.7å°æä¸F3è¨ç®çº5.9å°æï¼ç´å°çµ¦äºç¨è¥å¾36å°æãF1çå¹³å24å°ææ¿åº¦çºCmax ç0.13åãF2ççºCmax ç0.20åãä¸F3ççºCmax ç0.16åï¼é 測äºF2å¨QDéè¤çµ¦è¥å¾ææéçå³°è°·æ¯ãèSTABLONIRé æ¹ç¸æ¯ï¼F1çå»èæ®æ±ç¸å°çç©ææåº¦çº91%ãF2ççº90%ãä¸F3ççº73%ãæ´é²å¨å»èæ®æ±ä¸çåé«éè®ç°æ§(以CVç¾åæ¯è¡¨ç¤º)å¾CRé æ¹F1å°F2å°F3æå¢å ç趨å¢ãAll three tianeptine hemisulfate monohydrate CR formulations (F1, F2 and F3) showed a plasma concentration level after a delay time of 0.3 to 0.4 hours with a peak at about 2.5 to 3 hours (F3 vs. F1 and F2) A little later). The maximum tianeptine concentration of F1 is about the same as STABLON The IR formulation is 3 times lower, while the peak concentrations of tianeptine in F2 and F3 are higher than STABLON. The IR formula is 4 to 5 times lower. The tianeptine plasma concentration was attenuated to about 8 hours and then gradually increased to a second concentration peak, which was observed about 12 hours after administration. This second peak is about 0.4 times the plasma concentration C max is the initial F1, F2, and 0.5 and 0.6 times the F3C max. After this second peak, the plasma concentration further attenuated with the estimated half-life, which was calculated to be 5.3 hours at F1, 5.7 hours at F2, and 5.9 hours at F3 until 36 hours after administration. The average 24-hour concentration of F1 was 0.13 times Cmax , F2 was 0.20 times Cmax , and F3 was 0.16 times Cmax , and the most limited peak-to-valley ratio of F2 after repeated administration of QD was predicted. With STABLON Compared to the IR formulation, the relative bioavailability of tianeptine in F1 was 91%, 90% in F2, and 73% in F3. The inter-individual variability (expressed as a percentage of CV) exposed to tianeptine has an increasing tendency from CR formulations F1 to F2 to F3.
STABLONIRé åé æ¹é¡¯ç¤ºåºèæç»ä¸å·²ç¥ä¸è´çPKç¹å¾µï¼å¿«éè¢«å¸æ¶ãå¨çµ¦è¥å¾1å°2å°æé¡¯ç¤ºåºè¡æ¼¿æ¿åº¦å³°å¼ã以åé¨èç´3å°æçåè¡°æè¡°æ¸ãSTABLON The IR lozenge formulation showed PK characteristics consistent with known in the literature: rapid absorption, peak plasma concentration 1 to 2 hours after administration, and half-life decay with about 3 hours.
å¨çµ¦è¥å¾ç´2.5å°3å°æçä¸ä½æ¸æéï¼å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©CRé æ¹(F1ãF2åF3)é¡¯ç¤ºåºæ¯STABLONIRé æ¹ä½çå¤çè¡æ¼¿æ¿åº¦å³°å¼(F3æ¯F1åF2ç¨é²)ãF1 CRé æ¹çå»èæ®æ±æ¿åº¦å³°å¼è¦æ¯F2åF3 CRé æ¹çä¾çé«ãå¨Cmax å¾ï¼å»èæ®æ±æçºå¾CRé æ¹(F1ãF2åF3)ä¸è¢«å¸æ¶ï¼é æå¨çµ¦è¥å¾ç´10å°16å°æç第äºåå³°å¼ã第ä¸å第äºå³°å¼éçå·®ç°å¨F1ä¸(第äºå³°å¼ç´Cmax ç0.4å)æ¯å¨F2åF3ä¸(第äºå³°å¼çºCmax ç0.5å°0.6å)大ãè¡æ¼¿æ¿åº¦é¨è5å°6å°æçåè¡°æè¡°æ¸ãC24h èCmax éçå·®ç°å¨F1åF3ä¸(C24h /Cmax æ¯çåå¥çº0.13å0.16)æ¯èµ·å¨F2ä¸(C24h /Cmax æ¯ççº0.20)è¼å¤§ï¼å ¶é 測äºF2å¨éè¤çµ¦è¥å¾æå°çå³°è°·æ¯ãCRé æ¹F2é¡¯ç¤ºäºææéçå³°è°·æ¯ä»¥åé«çç©å©ç¨åº¦ãThe median time of about 2.5 to 3 hours after administration, the tianeptine hemisulfate monohydrate CR formula (F1, F2 and F3) showed a better than STABLON The IR formula has a much lower plasma concentration peak (F3 is slightly later than F1 and F2). The peak concentration of tianeptine in the F1 CR formulation was higher than that in the F2 and F3 CR formulations. After Cmax , tianeptine was continuously absorbed from the CR formulations (F1, F2 and F3), resulting in a second peak of about 10 to 16 hours after administration. The difference between the first and second peaks is greater in F1 (the second peak is about 0.4 times Cmax ) than in F2 and F3 (the second peak is 0.5 to 0.6 times Cmax ). Plasma concentrations decay with a half-life of 5 to 6 hours. The difference between C 24h and C max is larger in F1 and F3 (C 24h / C max ratios are 0.13 and 0.16, respectively) than in F2 (C 24h / C max ratio is 0.20), which predicts that F2 is repeated. The smallest peak-to-valley ratio after administration. CR Formula F2 shows the most limited peak-to-valley ratio and high bioavailability.
總ä¹ï¼å»èæ®æ±åç¡«é ¸é¹½å®æ°´åç©CRé æ¹(F1ãF2åF3)æ¯èµ·STABLONIRé æ¹ï¼å¨ç¨è¥å¾é¡¯ç¤ºäºè¼çºå¹³ç·©ç叿¶ï¼å¦è¼æç峰弿éãè¼ä½çCmax ãåè¼å¹³ç·©çè¡°æ¸æè實ãèSTABLONIRé æ¹ç¸æ¯ï¼å¨ç¬¬ä¸æ¬¡Cmax å¾ï¼å»èæ®æ±èªCRé æ¹ä¸æçºè¢«å¸æ¶ï¼é æå¨çµ¦è¥å¾ç´10å°16å°æç第äºåå³°å¼ãIn summary, the tianeptine hemisulfate monohydrate CR formula (F1, F2 and F3) is compared to STABLON The IR formulation showed a more gradual absorption after administration, as evidenced by later peak times, lower Cmax , and more gradual attenuation. With STABLON Compared to the IR formulation, tianeptine was continuously absorbed from the CR formulation after the first Cmax , resulting in a second peak of about 10 to 16 hours after administration.
å1-å»èæ®æ±å®æ°´åç¡«é ¸é¹½çPXRDç¹å°åãFigure 1 - PXRD diffraction pattern of tianeptine monohydrate hemisulfate.
å2-å»èæ®æ±å®æ°´åç¡«é ¸é¹½çDSC溫度è¨éåãFigure 2 - DSC temperature chart of tianeptine monohydrate hemisulfate.
å3-å»èæ®æ±å®æ°´åç¡«é ¸é¹½çTGA溫度è¨éåãFigure 3 - TGA temperature chart of tianeptine monohydrate hemisulfate.
å4-å»èæ®æ±å®æ°´åç¡«é ¸é¹½çDVSæ¸æãFigure 4 - DVS data for tianeptine monohydrate hemisulfate.
å5-å»èæ®æ±é¹½é ¸é¹½çPXRDç¹å°åãFigure 5 - PXRD diffraction pattern of tianeptine hydrochloride.
å6-å»èæ®æ±é¹½é ¸é¹½çDSC溫度è¨éåãFigure 6 - DSC thermogram of tianeptine hydrochloride.
å7-å»èæ®æ±é¹½é ¸é¹½çTGA溫度è¨éåãFigure 7 - TGA thermogram of tianeptine hydrochloride.
å8-å»èæ®æ±é¹½é ¸é¹½çDVSæ¸æãFigure 8 - DVS data for tianeptine hydrochloride.
å9-å»èæ®æ±ç£·é ¸é¹½çPXRDç¹å°åãFigure 9 - PXRD diffraction pattern of tianeptine phosphate.
å10-å»èæ®æ±ç£·é ¸é¹½çDSC溫度è¨éåãFigure 10 - DSC thermogram of tianeptine phosphate.
å11-å»èæ®æ±ç£·é ¸é¹½çTGA溫度è¨éåãFigure 11 - TGA thermogram of tianeptine phosphate.
å12-å»èæ®æ±ç£·é ¸é¹½çDVSæ¸æãFigure 12 - DVS data for tianeptine phosphate.
å13-å»èæ®æ±å®æ°´åç¡«é ¸é¹½çç´«å¤/叿¶å èãFigure 13 - Ultraviolet/absorption spectra of tianeptine monohydrate hemisulfate.
å14-å»èæ®æ±å®æ°´åç¡«é ¸é¹½çç´ å¤å èãFigure 14 - Infrared spectrum of tianeptine monohydrate hemisulfate.
å15-å»èæ®æ±å®æ°´åç¡«é ¸é¹½çææ¼å èãFigure 15 - Raman spectrum of tianeptine monohydrate hemisulfate.
å16-å»èæ®æ±éçDVSæ¸æãFigure 16 - DVS data for tianeptine sodium.
å17-ä¸åå»èæ®æ±é¹½ç溶解度ãFigure 17 - Solubility of different tianeptine salts.
å18-å»èæ®æ±å¼(II)çPXRDç¹å°åãFigure 18 - PXRD diffraction pattern of tianeptine formula (II).
å19-å種形å¼çå»èæ®æ±æ¼37âä¸åç¨®ç·©è¡æ¶²çæº¶è§£åº¦æ¸æãFigure 19 - Solubility data for various buffers of various forms of tianeptine at 37 °C.
å20-å»èæ®æ±éé¹½åå»èæ®æ±å®æ°´åç¡«é ¸é¹½è£½æé åä¹è¥ç©éæ¾(æ¼SGFä¸)ãFigure 20 - Drug release (in SGF) of a tablet made from tianeptine sodium salt and tianeptine monohydrate hemisulfate.
å21-å»èæ®æ±éé¹½åå»èæ®æ±å®æ°´åç¡«é ¸é¹½è£½æé åä¹è¥ç©éæ¾(æ¼SIFä¸)ãFigure 21 - Drug release (in SIF) of tablets made from tianeptine sodium and tianeptine monohydrate hemisulfate.
å22-å»èæ®æ±éé¹½åå»èæ®æ±å®æ°´åç¡«é ¸é¹½è£½æé åä¹è¥ç©éæ¾éç(æ¼SGFä¸)ãFigure 22 - Drug release rate (in SGF) of a tablet made from tianeptine sodium salt and tianeptine monohydrate hemisulfate.
å23-å»èæ®æ±éé¹½åå»èæ®æ±å®æ°´åç¡«é ¸é¹½è£½æé åä¹è¥ç©éæ¾éç(以尿¸åº§æ¨ï¼æ¼SGFä¸)ãFigure 23 - Drug release rate (in logarithmic coordinates, in SGF) of tablets made from tianeptine sodium salt and tianeptine monohydrate hemisulfate.
å24-STABLONè¥é èå»èæ®æ±å®æ°´åç¡«é ¸é¹½é åç¸æ¯ä¹ç·æ§å¹³åè¡æ¼¿æ¿åº¦æéæ²ç·ãFigure 24-STABLON A linear mean plasma concentration time curve of the tablet compared to the tianeptine monohydrate hemisulfate tablet.
Claims (24) Translated from Chineseä¸ç¨®å¦å¼(II)æç¤ºä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼ å ¶ä¸æè¿°åç¡«é ¸é¹½å®æ°´åç©ä¹ç¹å¾µçºXå°ç·ç²æ«ç¹å°åå å«å°å³°ä½æ¼2-θ è§åº¦ç´8.97ãç´11.47ãç´13.91ãç´18.07ãç´19.39åç´20.59度ãa 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine-11-yl) as shown in formula (II) Amino]heptanoic acid S,S-dioxide hemisulfate monohydrate: Wherein the hemisulfate monohydrate is characterized by an X-ray powder diffraction pattern comprising peaks at a 2- theta angle of about 8.97, about 11.47, about 13.91, about 18.07, about 19.39, and about 20.59 degrees. æ ¹æç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ä¿çµæ¶åã 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine according to item 1 of the scope of application Base] heptanoic acid S, S-dioxide hemisulfate monohydrate, which is a crystalline form. æ ¹æç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ä¸æè¿°åç¡«é ¸é¹½å®æ°´åç©ä¿åç¾çºè³å°æå¯æ¸¬éççµæ¶7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ã 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine according to item 1 of the scope of application a heptanoic acid S,S-dioxide hemisulfate monohydrate, wherein the hemisulfate monohydrate exhibits at least measurable crystals of 7-[(3-chloro-6,11-dihydrogen) -6-Methyldibenzo[c,f][1,2]thiazepin-11-yl)amino]heptanoic acid S,S-dioxide hemisulfate monohydrate. æ ¹æç³è«å°å©ç¯å第3é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ä¸æè¿°çµæ¶åç¡«é ¸é¹½å®æ°´åç©çééçºæè¿°åç¡«é ¸é¹½å®æ°´åç©ééçç´20%å°ç´100%ã 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine according to item 3 of the patent application A heptanoic acid S,S-dioxide hemisulfate monohydrate wherein the crystalline hemisulfate monohydrate has a weight of from about 20% to about 100% by weight of the hemisulfate monohydrate. æ ¹æç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ä¸æè¿°åç¡«é ¸é¹½å®æ°´åç©ä¹ç¹å¾µçºXå°ç·ç²æ«ç¹å°åå å«å°å³°ä½æ¼2-θè§åº¦ç´8.25ãç´8.97ãç´11.49ãç´13.91ãç´14.73ãç´16.95ãç´18.07ãç´19.39ãç´20.59ãç´21.99ãç´22.83åç´23.27度ã 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine according to item 1 of the scope of application a heptanoic acid S,S-dioxide hemisulfate monohydrate, wherein the hemisulfate monohydrate is characterized by an X-ray powder diffraction pattern comprising a peak at a 2-theta angle of about 8.25, about 8.97, about 11.49, about 13.91, about 14.73, about 16.95, about 18.07, about 19.39, about 20.59, about 21.99, about 22.83, and about 23.27 degrees. æ ¹æç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ä¸æè¿°åç¡«é ¸é¹½å®æ°´åç©ä¹ç¹å¾µçºå¤§è´ä¸å¦å1æç¤ºä¹Xå°ç·ç²æ«ç¹å°åã 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine according to item 1 of the scope of application Heptanoic acid S,S-dioxide hemisulfate monohydrate, wherein the hemisulfate monohydrate is characterized by an X-ray powder diffraction pattern substantially as shown in FIG. æ ¹æç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ä¸æè¿°åç¡«é ¸é¹½å®æ°´åç©ä¹ç¹å¾µçºææå¼ç±å·®ååæº«åº¦è¨éåå å«ä¸å¸ç±éæ¸¡ä½æ¼ç´193âèã 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine according to item 1 of the scope of application Heptanoic acid S,S-dioxide hemisulfate monohydrate, wherein the hemisulfate monohydrate is characterized by a scanning thermal differential temperature record comprising an endothermic transition at about 193 °C. æ ¹æç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§å ç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ä¸æè¿°åç¡«é ¸é¹½å®æ°´åç©ä»¥åæ æ°´åå¸éåææ¸¬éåºå¨25âä¸å¾ç¸å°æ¿åº¦ç´10%å°ç´90%ä¿é²æ¿çã 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine according to item 1 of the scope of application Base] heptanoic acid S, S-dioxide A hemisulfate monohydrate wherein the hemisulfate monohydrate is moisture resistant from a relative humidity of from about 10% to about 90% at 25 ° C as measured by dynamic moisture adsorption analysis. æ ¹æç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ä¸7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©æ¯ä¸ç¡«é ¸æ¯ä¸æ°´çæ¯çç´çº2ï¼1ï¼2ã 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine according to item 1 of the scope of application H]heptanoic acid S,S-dioxide hemisulfate monohydrate, wherein 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2 The ratio of S,S-dioxide to heptanoic acid to water is about 2:1:2. ä¸ç¨®çµæ¶7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼å ¶ç¹å¾µçºXå°ç·ç²æ«ç¹å°åå å«å°å³°ä½æ¼2-θè§åº¦ç´8.97ãç´11.49ãç´14.73ãç´20.59ãç´22.83åç´23.27度ã a crystalline 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amino]heptanoic acid S, S-dioxide hemisulfate monohydrate characterized in that the X-ray powder diffraction pattern comprises peaks at about 2-87 angles of about 8.97, about 11.49, about 14.73, about 20.59, about 22.83, and about 23.27 degrees. ä¸ç¨®è£½é å¦å¼(II)ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©çæ¹æ³ï¼ å ¶å 嫿¥é©(a)卿°´åéé ¸çæ··åç©ä¸æº¶è§£7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©æå ¶éé¹½ï¼(b)æ·»å å å 嫿°´æå 嫿°´çµåéé ¸çæº¶åä¹ç¡«é ¸æº¶æ¶²å°æ¥é©(a)çåææ··åç©ä¸ï¼(c)çµæ¶å¼(II)çååç©ãA 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amine of formula (II) Method for the formation of heptanoic acid S,S-dioxide hemisulfate monohydrate: It comprises the step (a) of dissolving 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine in a mixture of water and acetic acid. -11-yl)amino]heptanoic acid S,S-dioxide or a sodium salt thereof; (b) adding a sulfuric acid solution containing only water or a solvent comprising water in combination with acetic acid to the reaction mixture of step (a); c) Crystallizing the compound of formula (II). æ ¹æç³è«å°å©ç¯å第11é 乿¹æ³ï¼å ¶æ´é²ä¸æ¥å 嫿¥é©ï¼(d)åé¢å¨æ¥é©(c)çåææ··åç©ä¸æå¾å°ä¹å¼(II)ååç©ï¼(e)以水åéé ¸çæ··åç©æ¸ æ´å¼(II)ååç©ï¼(f)é²ä¸æ¥ç¨æ°´æ¸ æ´å¼(II)ååç©ï¼å(g)ä¹¾ç¥å¼(II)ååç©ã According to the method of claim 11, further comprising the steps of: (d) separating the compound of the formula (II) obtained in the reaction mixture of the step (c); (e) washing the mixture with a mixture of water and acetic acid ( II) a compound; (f) further washing the compound of the formula (II) with water; and (g) drying the compound of the formula (II). æ ¹æç³è«å°å©ç¯å第11é 乿¹æ³ï¼å ¶ä¸è©²æ¹æ³å¯¦æ½ææªåé¢ä¸å¼ä¹ä¸éç¢ç©ï¼ According to the method of claim 11, wherein the method does not separate the intermediate product of the formula: ä¸ç¨®å¦ç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©çç¨éï¼ä¿ç¨æ¼è£½åæ²»çæ£ææé¬±çä¹åºä¹³åç©çè¥ç©ã A 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine-11-yl) as claimed in claim 1 The use of amino]heptanoic acid S,S-dioxide hemisulfate monohydrate is used to prepare a medicament for treating a mammal suffering from depression. ä¸ç¨®å å«ç³è«å°å©ç¯å第1é ä¹7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©åé«è¥ä¸å¯æ¥åè¼é«çé«è¥çµåç©ã A 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine-11-yl) containing the first item of the patent application scope A pharmaceutical composition of an amino]heptanoic acid S,S-dioxide hemisulfate monohydrate and a pharmaceutically acceptable carrier. æ ¹æç³è«å°å©ç¯å第15é ä¹çµåç©ï¼å ¶ä¸æè¿°é«è¥çµåç©ä¿æ§å¶éæ¾é«è¥çµåç©ã The composition of claim 15 wherein the pharmaceutical composition is a controlled release pharmaceutical composition. ä¸ç¨®æ§å¶éæ¾é質é åï¼å ¶å å«ï¼é«è¥ä¸ææéç7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼åä¸åæå¤åéæ¾æ§å¶èåç©ï¼å ¶ä¸ç¶è©²é åçµ¦äºæ£è 壿æï¼å ¶7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©çå¹³åæé«è¡æ¼¿æ¿åº¦(Cmax )çºç´100ng/mLå°ç´150ng/mLãA controlled release interstitial lozenge comprising: a pharmaceutically effective amount of 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine a heterologous 11-yl)amino]heptanoic acid S,S-dioxide hemisulfate monohydrate; and one or more release controlling polymers, wherein when the tablet is administered orally to a patient, its 7-[ (3-Chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepin-11-yl)amino]heptanoic acid S,S-dioxide The average maximum plasma concentration ( Cmax ) is from about 100 ng/mL to about 150 ng/mL. æ ¹æç³è«å°å©ç¯å第17é ä¹é åï¼å ¶ä¸æè¿°é å使ç¨ç¾åè¥å ¸æº¶é¢åå¨IIå(æ§³å¼)å¨ç´37âã100rpmä¸ã900mL模æ¬èæ¶²(pHå¼ç´çº1.2)ä¸ææ¸¬éçé«å¤æº¶ é¢éçå¨éæ¾1å°æå¾å°æ¼14%ééç7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ï¼éæ¾7å°æå¾å¨45%å°80%ééç7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ä¹éï¼ä¸¦å¨éæ¾16å°æå¾å¤æ¼90%ééç7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©åç¡«é ¸é¹½å®æ°´åç©ã A lozenge according to claim 17, wherein the tablet is in vitro in the form of a U.S. Pharmacopoeia Dissolving Apparatus Type II (paddle) at about 37 ° C, 100 rpm, 900 mL of simulated gastric fluid (pH of about 1.2). Dissolve Less than 14% by weight of 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine - after 1 hour of release 11-yl)amino]heptanoic acid S,S-dioxide hemisulfate monohydrate, after 7 hours of release, in 45% to 80% by weight of 7-[(3-chloro-6,11-dihydro- 6-Methyldibenzo[c,f][1,2]thiazepine-11-yl)amino]heptanoic acid S,S-dioxide hemisulfate monohydrate, and is released More than 90% by weight of 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f][1,2]thiazepine-11-yl) after 16 hours Amino]heptanoic acid S,S-dioxide hemisulfate monohydrate. æ ¹æç³è«å°å©ç¯å第17é ä¹é åï¼å ¶ä¸æè¿°é åç¶çµ¦äºæ£è 壿æï¼å ¶7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©çå¹³åæé«è¡æ¼¿æ¿åº¦(Cmax )çºç´100ng/mLå°ç´120ng/mLãA lozenge according to item 17 of the patent application, wherein the tablet is 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f] when administered orally to a patient. The average maximum plasma concentration ( Cmax ) of [1,2]thiazepin-11-yl)amino]heptanoic acid S,S-dioxide is from about 100 ng/mL to about 120 ng/mL. æ ¹æç³è«å°å©ç¯å第17é ä¹é åï¼å ¶ä¸æè¿°é åç¶çµ¦äºæ£è 壿æï¼å ¶7-[(3-æ°¯-6,11-äºæ°«-6-ç²åºäºè¯å¹¶[c,f][1,2]ç¡«æ°®éå-11-åº)èºåº]åºé ¸S,S-äºæ°§åç©éå°å¹³åæé«è¡æ¼¿æ¿åº¦çä¸ä½æ¸æé(Tmax )ç¯åå¾ç´2.5å°æå°ç´3.0å°æãA lozenge according to item 17 of the patent application, wherein the tablet is 7-[(3-chloro-6,11-dihydro-6-methyldibenzo[c,f] when administered orally to a patient. The median time ( Tmax ) for [1,2]thiazepin-11-yl)amino]heptanoic acid S,S-dioxide to achieve an average maximum plasma concentration ranges from about 2.5 hours to about 3.0 hours. æ ¹æç³è«å°å©ç¯å第17é ä¹é åï¼å ¶ä¸æè¿°é åç¶çµ¦äºæ£è 壿æï¼å ¶è¡æ¼¿æ¿åº¦æéæ²ç·çæ²ç·ä¸å¹³åé¢ç©ç¯åå¾ç´1170ng.hr/mLå°ç´1380ng.hr/mLã A lozenge according to claim 17, wherein the lozenge, when administered orally to a patient, has an average area under the curve of the plasma concentration time curve ranging from about 1170 ng.hr/mL to about 1380 ng.hr/mL. æ ¹æç³è«å°å©ç¯å第17é ä¹é åï¼å ¶ä¸æè¿°ä¸åæå¤åéæ¾æ§å¶èåç©å å«ç¾¥ä¸åºç²åºçºç¶ç´ ã A lozenge according to item 17 of the patent application, wherein the one or more release controlling polymers comprise hydroxypropyl methylcellulose. æ ¹æç³è«å°å©ç¯å第17é ä¹é åï¼å ¶ä¸æè¿°ä¸åæå¤åéæ¾æ§å¶èåç©å å«é»åº¦80å°120cpsç第ä¸ç¾¥ä¸åºç²åºçºç¶ç´ (æº¶æ¼æ°´ä¸ç2%溶液)åé»åº¦3,000å°5,600cpsç第äºç¾¥ä¸åºç²åºçºç¶ç´ (æº¶æ¼æ°´ä¸ç2%溶液)ã The tablet according to claim 17, wherein the one or more release controlling polymers comprise first hydroxypropyl methylcellulose (2% solution dissolved in water) having a viscosity of 80 to 120 cps and a viscosity of 3,000 to 5,600 cps of second hydroxypropyl methylcellulose (2% solution in water). æ ¹æç³è«å°å©ç¯å第23é ä¹é åï¼å ¶ä¸æè¿°ç¬¬ä¸ç¾¥ä¸åºç²åºçºç¶ç´ åæè¿°ç¬¬äºç¾¥ä¸åºç²åºçºç¶ç´ 乿¯ççºç´2ï¼1å°ç´4ï¼1ãA lozenge according to claim 23, wherein the ratio of the first hydroxypropylmethylcellulose to the second hydroxypropylmethylcellulose is from about 2:1 to about 4:1.
TW098136937A 2008-10-31 2009-10-30 Tianeptine sulfate salt forms and methods of making and using the same TWI492937B (en) Applications Claiming Priority (4) Application Number Priority Date Filing Date Title US11000108P 2008-10-31 2008-10-31 US11000608P 2008-10-31 2008-10-31 US11000908P 2008-10-31 2008-10-31 US22834309P 2009-07-24 2009-07-24 Publications (2) Family ID=43447880 Family Applications (1) Application Number Title Priority Date Filing Date TW098136937A TWI492937B (en) 2008-10-31 2009-10-30 Tianeptine sulfate salt forms and methods of making and using the same Country Status (4) Citations (2) * Cited by examiner, â Cited by third party Publication number Priority date Publication date Assignee Title US3758528A (en) * 1970-03-13 1973-09-11 Science Union & Cie Tricyclic compounds US6599896B1 (en) * 1999-04-07 2003-07-29 Les Laboratoires Servier Use of tianeptine in the production of medicaments to treat neurodegenerative pathologiesRetroSearch is an open source project built by @garambo | Open a GitHub Issue
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