| Measurement of Al, Cr, Cu, Ni, Pb, Si, Sn, Ti, V in Engine Oil |
AAS |
01-1074-00 |
| Analysis of Environmental Water Samples Using Graphite Furnace AA with Hyper-Pulse Background Correction |
AAS |
01-1075-00 |
| Why Use Automatic Burner Rotation in Flame AAS? |
AAS |
01-1076-00 |
| The Determination of Aluminium, Iron and Silicon in Rock Samples |
AAS |
01-1077-00 |
| The Analysis of Lead in Drinking Water |
AAS |
01-1078-00 |
| Comparison between flame heating and electrical heating trace-level hydride analysis |
AAS |
01-1079-00 |
| Sensitivity Improvements in Flame AAS using GBC Atom Trap |
AAS |
01-1080-00 |
| Improved Accuracy in AA Analysis using Automatic Sensitivity Correction |
AAS |
01-1081-00 |
| The Determination of Beryllium in Drinking Water using the GBC Graphite Furnace System |
AAS |
01-1082-00 |
| Quality Control Procedures for Graphite Furnace AAS using SavantAA Software |
AAS |
01-1083-00 |
| Mercury determination at ultra-trace concentration using GBC AAS and MC3000 Mercury Concentrator |
AAS |
01-1084-00 |
| The GBC high performance nitrous oxide-acetylene burner and spray chamber system |
AAS |
01-1085-00 |
| The determination of As, Se and Hg levels in U.S. EPA QC samples using the GBC HG3000 continuous-flow hydride generator |
AAS |
01-1087-00 |
| An evaluation of the performance characteristics of super lamps |
AAS |
01-1088-00 |
| The measurement of Fe, Al, Ca and Mg in FeSi and FeSiMg samples by flame atomic absorption |
AAS |
01-1089-00 |
| Copper/Zinc ratio: a useful indicator for differentiation of sarcoidosis from pulmonary tuberculosis and lung cancer |
AAS |
01-1090-00 |
| Determination of Sb, Ba and Pb in gunpowder residue analysis |
AAS |
01-1091-00 |
| The analysis of selenium in the presence of iron using the GBC graphite furnace system |
AAS |
01-1092-00 |
| The determination of aluminium in plasma and dialysate solution using the GBC graphite furnace system |
AAS |
01-1093-00 |
| The determination of trace elements (Ca, Mg, Sr, Ba, Al, Ni, Fe, Cr) in brine solution by graphite furnace AAS |
AAS |
01-1094-00 |
| The Analysis of Tile Glaze |
AAS |
01-1096-00 |
| The determination of lead in blood by graphite furnace AAS |
AAS |
01-1099-00 |
| The determination of copper, nickel and cobalt in sodium hypochlorite |
AAS |
01-1100-00 |
| The effect of background correction speed on the accuracy of atomic absorption measurements |
AAS |
01-1101-00 |
| The determination of As and Se in environmental samples using the GBC graphite furnace system |
AAS |
01-1102-00 |
| The determination of essential metals in vitamin tablets |
AAS |
01-1103-00 |
| The determination of cobalt in urine using the GBC automated graphite furnace system |
AAS |
01-1104-00 |
| Analysis of rubber samples by flame atomic absorption |
AAS |
01-1105-00 |
| The determination of Chromium in urine using the GBC automated graphite furnace system |
AAS |
01-1106-00 |
| The determination of trace elements (Ag, Bi, Cu, Sb, Ni) in lead-tin solders |
AAS |
01-1107-00 |
| The determination of manganese in white spirits by flame atomic absorption spectrophotometry |
AAS |
01-1108-00 |
| The determination of lead in human blood using porcine blood standards |
AAS |
01-1111-00 |
| Determination of volatile organic compounds in water |
GC-MS |
01-1112-00 |
| Qualitative analysis of a mixture of three types of drugs using Aludra GC-MS |
GC-MS |
01-1113-00 |
| Solution GC-MS determination of polybrominated biphenyls and polybrominated diphenyl ethers in plastic plug samples preamble |
GC-MS |
01-1133-00 |
| Analysis of organic components in lithium battery electrolyte |
GC-MS |
01-1134-00 |
| Determination of 16 polycyclic aromatic hydrocarbons in soil by gas chromatography-mass spectrometry |
GC-MS |
01-1135-00 |
| Determination of organochlorine pesticides in soil by gas chromatography-mass spectrometry |
GC-MS |
01-1136-00 |
| The advantages of simultaneity and full mass range capability of ICP-TOFMS |
ICP-oTOFMS |
01-0913-00 |
| Analysis of soil and water samples using the OptiMass 9600 |
ICP-oTOFMS |
01-1047-00 |
| The advantages of time-of-flight mass spectrometry for elemental analysis |
ICP-oTOFMS |
01-0876-00 |
| The advantages of orthogonal acceleration in ICP time-of-flight mass spectrometry |
ICP-oTOFMS |
01-0877-00 |
| AAS or ICP-OES–are they competing techniques? |
ICP-OES |
01-1115-00 |
| Optimizing analytical performance in ICP-OES applications |
ICP-OES |
01-1116-00 |
| Direct determination of trace impurities in 30% NaCl and 40% FeCl3 solutions by ICP-OES |
ICP-OES |
01-1117-00 |
| Nutritional and micro nutritional analysis of milk powders and other dairy products using the slurry method of sample introduction |
ICP-OES |
01-1118-00 |
| Determination of various elements in highly volatile organic matrices (naphtha) |
ICP-OES |
01-1119-00 |
| The analysis of phosphorus in edible oils by ICP-OES |
ICP-OES |
01-1120-00 |
| The analysis of wear metals in lubricating oils by ICP-OES |
ICP-OES |
01-1121-00 |
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