Powerful Analytics based on Modern Spectrometers



Similar documents
Modern approaches to determination of toxic metals in marine environmental objects. Atomic absorption and inductively coupled plasma, advantages and

Fundamentals of modern UV-visible spectroscopy. Presentation Materials

Spectroscopy. Biogeochemical Methods OCN 633. Rebecca Briggs

3 - Atomic Absorption Spectroscopy

Simplicity. Reliability. Performance

Image Area EXCEPTIONAL PERFORMANCE FOR CHALLENGING MERCURY ANALYSES. FIMS 100 and 400. Flow Injection Mercury Systems

University of Wisconsin Chemistry 524 Spectroscopic Applications (GFAA, ICP, UV/Vis, Fluorescence)

MCAL Spectrophotometry. Spectrophotometry

Time out states and transitions

Preview of Period 3: Electromagnetic Waves Radiant Energy II

FMA-80 Fluorescence Mercury Analyzer

Spectroscopy Using the Tracker Video Analysis Program

Multi-elemental determination of gasoline using Agilent 5100 ICP-OES with oxygen injection and a temperature controlled spray chamber

ATOMIC SPECTRA. Apparatus: Optical spectrometer, spectral tubes, power supply, incandescent lamp, bottles of dyed water, elevating jack or block.

Graphite Furnace AA, Page 1 DETERMINATION OF METALS IN FOOD SAMPLES BY GRAPHITE FURNACE ATOMIC ABSORPTION SPECTROSCOPY (VERSION 1.

Universal Data Acquisition (UDA)

SOLSPEC MEASUREMENT OF THE SOLAR ABSOLUTE SPECTRAL IRRADIANCE FROM 165 to 2900 nm ON BOARD THE INTERNATIONAL SPACE STATION

We bring quality to light. MAS 40 Mini-Array Spectrometer. light measurement

Spectral Measurement Solutions for Industry and Research

Development of the Extreme Ultraviolet Spectrometer: EXCEED

Concepts, Instrumentation and Techniques in Atomic Absorption Spectrophotometry

DMA-80 Direct Mercury Analyzer

Elemental Analyses by ICP-AES

Analysis of Chlorine, Bromine and Iodine in Water using ICP-AES

Experiment #5: Qualitative Absorption Spectroscopy

Problem Set 6 UV-Vis Absorption Spectroscopy Express the following absorbances in terms of percent transmittance:

OLIVÉR BÁNHIDI 1. Introduction

FTIR Instrumentation

How To Analyze Plasma With An Inductively Coupled Plasma Mass Spectrometer

Introduction to Fourier Transform Infrared Spectrometry

Laboratory #3 Guide: Optical and Electrical Properties of Transparent Conductors -- September 23, 2014

Corona process The new ZEISS spectrometer system for the food industry

GRID AND PRISM SPECTROMETERS

Portable X-ray fluorescence Spectroscopy. Michael A. Wilson Research Soil Scientist USDA-NRCS National Soil Survey Center Lincoln, NE

RoHS Test Methods. Presented by: Bruce Peterson

USING OPTICAL EMISSION SPECTROSCOPY TO IMPROVE EQUIPMENT UPTIME FOR AN AL2O3 ALD PROCESS *

Agilent Cary 60 UV-Vis

From lowest energy to highest energy, which of the following correctly orders the different categories of electromagnetic radiation?

VALIDATION REPORT. Investigation of the major interferences for proposed Horizontal ICP AES method. ECN protocol

Electromagnetic Radiation (EMR) and Remote Sensing

Components for Infrared Spectroscopy. Dispersive IR Spectroscopy

Simple Laser-Induced Fluorescence Setup to Explore Molecular Spectroscopy. Abstract

UV-Vis spectrophotometers

EDS system. CRF Oxford Instruments INCA CRF EDAX Genesis EVEX- NanoAnalysis Table top system

DMA-1 Direct Mercury Analyzer

Flow Injection Analysis

Soil degradation monitoring by active and passive remote-sensing means: examples with two degradation processes

A Review of Commercial Light Meter Calibration

HP 70950B OPTICAL SPECTRUM ANALYZER

Measuring the Doppler Shift of a Kepler Star with a Planet

Chapter 28: High-Performance Liquid Chromatography (HPLC)

Determination of Metals in a 3% Sodium Chloride (NaCl) Matrix by Axially-Viewed ICP-OES

Christine E. Hatch University of Nevada, Reno

The Fundamentals of Infrared Spectroscopy. Joe Van Gompel, PhD

Activitity (of a radioisotope): The number of nuclei in a sample undergoing radioactive decay in each second. It is commonly expressed in curies

5.33 Lecture Notes: Introduction to Spectroscopy

HS 1003 Part 2 HS 1003 Heavy Metals Test

Atoms Absorb & Emit Light

The photoionization detector (PID) utilizes ultraviolet

Advanced Solutions for Gas Monitoring

2015 Training Courses

Reprint (R22) Avoiding Errors in UV Radiation Measurements. By Thomas C. Larason July Reprinted from Photonics Spectra, Laurin Publishing

Copyright by Mark Brandt, Ph.D. 12

Ultima Expert Ultimate ICP-OES Spectrometer Best Performance & Ease-of-Use

Zecotek S Light Projection Network Marketing

Elemental analyzer multi EA 5000

Raman Spectroscopy Basics

Adjustment functions for both span and shift have been incorporated

Katharina Lückerath (AG Dr. Martin Zörnig) adapted from Dr. Jörg Hildmann BD Biosciences,Customer Service

New Developments and Functional Enhancements in RDE Used Oil Analysis Spectrometers

Project 2B Building a Solar Cell (2): Solar Cell Performance

Appendix 5 Overview of requirements in English

EPA REVIEW OF SHELL BENZENE MONITORING

The Measurement of Sensitivity in Fluorescence Spectroscopy

Fig.1. The DAWN spacecraft

UVC LEDs for. Environmental Monitoring

Vertical Cavity Surface Emitting Laser OPV300, OPV310, OPV310Y, OPV314, OPV314Y

Austin Peay State University Department of Chemistry Chem The Use of the Spectrophotometer and Beer's Law

Regional Environmental Protection Agency- Veneto Region LABORATORY REGIONAL DEPARTMENT

High Resolution Spatial Electroluminescence Imaging of Photovoltaic Modules

Back to Basics Fundamentals of Polymer Analysis

MATRIX TECHNICAL NOTES

instruments Analytical Instruments for Science

Lecture 20: Scanning Confocal Microscopy (SCM) Rationale for SCM. Principles and major components of SCM. Advantages and major applications of SCM.

Background Information

Measurement of Enhanced Specular Reflector (ESR) Films Using a LAMBDA 1050 UV/Vis/NIR Spectrometer and URA Accessory

MILESTONE H E L P I N G C H E M I S T S

Improving Chromatic Dispersion and PMD Measurement Accuracy

SGS: Das Scanning Grating Spektrometer Ein kleines, günstiges Spektrometermodul auf Basis eines dispersiven Mikrosystems

Ultra line narrowed injection lock laser light source for higher NA ArF immersion lithography tool

An Airborne A-Band Spectrometer for Remote Sensing Of Aerosol and Cloud Optical Properties

Frank C. De Lucia Ivan R. Medvedev Christopher F. Neese Grant M. Plummer. Ohio State University Enthalpy Analytical

Validation and Calibration of Analytical Instruments a D.Gowrisankar, b K.Abbulu, c O.Bala Souri, K.Sujana*

UV/VIS/IR SPECTROSCOPY ANALYSIS OF NANOPARTICLES

Short introduction into. Analytical Chemistry. by Prof. Dr. Manfred Sietz and Dr. Andreas Sonnenberg (PowerPoint slides)

Recording the Instrument Response Function of a Multiphoton FLIM System

HPLC Analysis of Acetaminophen Tablets with Waters Alliance and Agilent Supplies

Production of X-rays. Radiation Safety Training for Analytical X-Ray Devices Module 9

Transcription:

Powerful Analytics based on Modern Spectrometers Gerhard Schlemmer Analytik Jena AG, Konrad- Zuse- Str. 1, 07745 Jena g.schlemmer@analytik-jena.de 1 1

Powerful Analytics based on Modern Spectrometers Optimizing Analytical Quality Absorption: Line oder Spectrum? Atomic Fluorescence: simple optics, excellent S/N: Where are the limits? Absorption/ Emission Sequential or simultaneous? Bio Analytics Limitations and chances due to new materials 2 2

Analyt. Parameter System Component Influences Sensitivity Noise RSD Detection Limit Long Term Stability 3 Atomizer, Meas.Volume, Optics, Source Detector, Optics, Source, Elektronics Atomizer, Meas.Volume, Corrections (Detektor, Optics) Detector, Optics, Source, Elektronics Corrections, Sampel presentation Detector, Optics, Source, Elektronic, Correktions, Sample presentation DL RSD Working range. DL, RSD Working range. Repeatability Time for Measurement Range of Use Recovery; Calibration 3

Absorption:Line oder Spectrum? Line Source AAS Optics Czerny- Turner Monochromator Resolution~ 200 pm 4 Double Echelle- Monochromator Resolution ~ 2 pm Based on DEMON ISAS-Berlin 4

Absorption:Line oder Spectrum? LS AAS Source Intensity Mn Triplet: 279, 4817 nm 279, 8269 nm 280, 1085 nm CS AAS Absorption spectra Mn Triplet: 279, 4817 nm 279, 8269 nm 280, 1085 nm Absorption 1, 0 0, 7 0, 5 0, 2 5 0, 0 2 7 9, 3 2 7 9, 4 2 7 9, 5 2 7 9, 6 2 7 9, 7 2 7 9, 8 2 7 9, 9 2 8 0, 0 2 8 0, 1 2 8 0, 2 2 8 0, 3 W e l le n lä n g e ( n m ) 5

Absorption: Linie oder Spektrum? LS Spectral window 200 pm Emission line ~2 pm Absorption profile 1-5 pm CS... CCD-Array with a resolution of ~ 2pm/ pixel 6 Spectral window 200 pm 6

Absorption: Line oder Spectrum? Is a source line really one line?: Emission of a Cd- hollow cathode lamp as a function of the lamp current. Ref. T. Labatzke, Analytik- Jena, C. Scholz, D. Mory, LTB, Berlin 2002 7 7

Absorption: Line oder Spectrum? Corrections required in AAS source of error correction LS-AAS correction HR-CS- AAS source drift thermal emission unspecific absorption optical double beam sequential lamp modulation sequential BG correction, sequential (D2 lamp, Zeeman effekt, line reverse method) reference pixels simultaneous reference pixels simultaneous reference pixels Reference spektra simultaneous 8 8

HR-CSAAS A New Way to look at Atomic Absorbance Example: complex Background close to the analyte line NO- Structure in the vicinity of 213,857 nm 9 9

HR-CSAAS A New Way to look at Atomic Absorbance Determination of P on PO- Band at 246,400 nm using the C 2 H 2 / Air Flame (Absorbance reading on molecular Band) 10 10

HR-CSAAS A New Way to look at Atomic Absorbance Gain in information: absorbance becomes 3. dimensional Abs. wave length spectra 2D 11 Abs. wave length spectra 3D 11

Absorption: Line or Spectrum? Extended application range: atomic+molecular Simultaneous corrections for better accuracy Much more information on background Atomic lines Molecular band and fine structure Pushing the limits in complex matrices Independence of c 0 /m 0 on lamp type, age or fine structur Opening a new chapter on the way towards absolute analysis Will we finally approach real simultaneous AAS? 12 12

System Mercur Duo fluorescence and absorption in one system; measurement of mercury vapour in an argon carrier stream Atomic Fluorescence 0,03 Signalvergleich AFS / AAS 0,03 Intensität [ Ints ] 0,02 0,02 0,01 0,01 AFS-Signal 1µg/L AAS-Signal 1µg/L 0,025 0,02 0,015 0,01 0,005 0 Extiktion [ Ext ] 0,00-0,005 0 5 10 15 20 25 30 35 40 Integrationszeit [ sec. ] 13 13

AAS vers.afs Parameter Application DL Lin. Calib. range Interferences AFS CVG only 0.3 ng/l (Hg) 10 4 Source drift Background Abs. Quenching AAS All techniques 3 ng/l (Hg) 10 2,5 Background Abs. 14 14

Simultaneous vers. Sequential Reading ICP- OES Parameter Speed p. sample Speed p. element Working range DL Interferences Ruggedness Content of info ICP- Sequential + + +++ ++ + + + ICP- Simult. + +++ ++ + ++ ++ +++ 15 Cost ++ + 15

Simultaneous vers. Sequential ReadingUV/VIS Parameter Spectra Lin.Calib.Range Stray light Optical resolution Sample Ruggedness S/N Simultaneous (S600) Very fast <<1s ~2A 0.9%T*/0.05%T** 1-2 nm Full illumination Fixed optics + Sequential (S250) Slow 1 min ~3A 0.3%T*/0.005%T 0.5 nm Selected WL Moving parts ++ 16 * Validation at 198 nm; ** Validation at 220 nm 16

Bio Analytics Limitations and chances due to new applications Chips/cells/ flow system require photons and detection on a spot Direct contact with bio- media may require biocompatible materials Often extrem cost sensitive parts (disposables) Use of lightwave guides- Use of fiber- optic sensors- 17 17

Bio Analytics just a few examples of light wave guides/ fiber-optical sensors 18 18

Gesellschaft Deutscher Chemiker Fachgruppe Analytische Chemie Deutscher Arbeitskreis Spektroskopie DASp: Doktorandentreffen Jena, 9-10 Juli 2008 19 19

ESAS 2008 Weimar, Sept 28th-Oct 1st The European Spectroscopy Symposium www.esas-symposium.de 20 20