Modern liquid column chromatography (LC) has developed rapidly since 1969 to become a standard method of separation. If the statisticians are to be believed, the recent growth of LC has been the most specta­ cular development in analytical chemistry and has not yet abated be­ cause its vast potential for application remains to be fully exploit­ ed. Significant factors contributing to this continued rise are the simplicity and low cost of the required basic equipment and the rela­ tive ease of acquiring and interpreting the data. Unfortunately, in LC, as so often in the field of analytical chemistry, the available commercial instruments are frequently far more complicated - and consequently far more expensive - than is nec­ essary for routine application. Therein also lies the risk of propa­ gating a "black box" philosophy that would be particularly detrimen­ tal to chromatography. Moreover, it appears to have been forgotten, as was done previously with gas chromatography, that inadequate sep­ aration by a column can be remedied only with great difficulty, if at all, by electronic means. Also, whether the capillary columns recent­ ly advocated with great enthusiasm for LC will fulfill the expecta­ tions of their proponents is highly questionable unless someone comes up with some new and revolutionary ideas.

Modern liquid column chromatography (LC) has developed rapidly since 1969 to become a standard method of separation. If the statisticians are to be believed, the recent growth of LC has been the most specta­ cular development in analytical chemistry and has not yet abated be­ cause its vast potential for application remains to be fully exploit­ ed. Significant factors contributing to this continued rise are the simplicity and low cost of the required basic equipment and the rela­ tive ease of acquiring and interpreting the data. Unfortunately, in LC, as so often in the field of analytical chemistry, the available commercial instruments are frequently far more complicated - and consequently far more expensive - than is nec­ essary for routine application. Therein also lies the risk of propa­ gating a "black box" philosophy that would be particularly detrimen­ tal to chromatography. Moreover, it appears to have been forgotten, as was done previously with gas chromatography, that inadequate sep­ aration by a column can be remedied only with great difficulty, if at all, by electronic means. Also, whether the capillary columns recent­ ly advocated with great enthusiasm for LC will fulfill the expecta­ tions of their proponents is highly questionable unless someone comes up with some new and revolutionary ideas.

Modern liquid column chromatography (LC) has developed rapidly since 1969 to become a standard method of separation. If the statisticians are to be believed, the recent growth of LC has been the most specta­ cular development in analytical chemistry and has not yet abated be­ cause its vast potential for application remains to be fully exploit­ ed. Significant factors contributing to this continued rise are the simplicity and low cost of the required basic equipment and the rela­ tive ease of acquiring and interpreting the data. Unfortunately, in LC, as so often in the field of analytical chemistry, the available commercial instruments are frequently far more complicated - and consequently far more expensive - than is nec­ essary for routine application. Therein also lies the risk of propa­ gating a "black box" philosophy that would be particularly detrimen­ tal to chromatography. Moreover, it appears to have been forgotten, as was done previously with gas chromatography, that inadequate sep­ aration by a column can be remedied only with great difficulty, if at all, by electronic means. Also, whether the capillary columns recent­ ly advocated with great enthusiasm for LC will fulfill the expecta­ tions of their proponents is highly questionable unless someone comes up with some new and revolutionary ideas.