Ancillary reading

Wainer, I.W. (1987) Classification of chiral stationary phases, Trends in Anal. Chem., 6, 125-134. 

(1994) Evolution of chiral stationary phase design in the pirkle laboratories, J. Chroma-togr. A, 665, 3-26. 

Armstrong, D.W. (1997) The evolution of chiral stationary phases for liquid chromatography, LC GC, Current Issues in HPLC Technologies (Suppl.), S20-S28. 

(1998) Chiral resolution for pharmaceutical R D - Beyond the Final Frontiers , Eur. Pharm. Rev., 3, 48-55. 

(1998) Enantiomeric impurities in chiral catalysts, auxilaries, synthons, and resolving agents, Tet. Asymmetry, 9, 2043-2064. 

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Ancillary readings from suitable sensors such as temperature and soil parameters... 

To an experienced operator trained in the handling of industrial chemicals, the dimers present Httle cause for concern in handling or storage. The finished polymer coating presents even less of a health problem contact with the reactive monomer is unlikely. In the ancillary operations, such as cleaning or adhesion promotion, the operator must observe suitable precautions. Before using the process chemicals, operators must read and understand the current Material Safety Data Sheets, which are available from the manufacturers. 

We planned this book to be useful even if read only in part. The first chapter is a summary of what is known about x-rays that is pertinent to spectrochemical analysis, and it should receive at least cursory attention from all readers. Those interested primarily in absorptiometry may then turn to Chapter 3 or 5 in film thickness, to Chapter 6 and in x-ray- emission spectrography, to Chapters 7 and 8. The remaining five chapters are ancillary and deal with special topics. 

Ultimately the reader will find this work an excellent addition to their library. As earlier indicated, the text reads well, is crisp and concise and provides excellent up-to-date coverage of inorganic mass spectrometry and the important ancillary topics. 

The statistical nature of the turbulent flame required the analysis of many temperature and density data points from separate pulses for accurate results. Thus, an overall computer system was used to control the various components of the combustion probe apparatus, and to collect and interpret the resultant data in an accurate and timely fashion. This system produced a block of data for each laser shot that included information about the Raman signals, LV readings, and ancillary data such as an identifying shot number and corresponding dye laser pulse energy. Typical current operation permits about twenty experimental run conditions daily, with up to several hundred shots per run. 

These latter assumptions make use of thermochemical data ancillary to the enthalpy of hydrogenation. These data are not just the enthalpies of formation of C02(g) and H20(lq), needed for his/her counterpart who measures enthalpies of combustion. The use of ancillary thermochemical information becomes imperative, e.g. the enthalpy of formation of an alkane that is the product of hydrogenating a diene of interest. It is an easy conceptual step to go from ancillary information to secondary sources of thermochemical data. This is consonant with our own bibliographic preferences and prejudices, in this paper we tacitly choose to cite secondary sources over primary sources. This strongly simplifies the writing and reading of our text at the risk of offending an occasional author of an uncited primary research paper. 

A major advance in the automation of specimen identification in the clinical laboratory has been the incorporation of bar coding technology into analytical systems.In practice, a bar coded label (often generated by the laboratory information system and bearing the specimen accession number) is placed onto the specimen container and is subsequently read by one or more bar code readers that have been strategically placed at key positions in the analytical train. The resultant identifying and ancillary information is then transferred to and processed by the system software. 

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