Laser-induced breakdown spectroscopy (LIBS)- application in archaeology and art.

Slides:



Advertisements
Similar presentations
Mosaic The art of creating images by using small pieces (tesserae) of glass, stone and other materials. Can be a technique of decorative art or of cultural.
Advertisements

 Medium- The materials used to create an artwork. (plural form-Media)  2 Dimensional Art - Art existing on a flat surface with only length and height.
Nonequilibrium Thermodynamics Laboratories The Ohio State University OH Laser-Induced Fluorescence Measurements in Nanosecond Pulse Discharge Plasmas Inchul.
427 PHC. Direct-Current Plasma  A direct-current plasma (DCP) is created by an electrical discharge between two electrodes. A plasma support gas is necessary,
PROVIDED BY EMAD BEHDAD SPECIALIZED PROTECTION AND CORROSION OF MATERIALS LECTURERS H.MONAJATI,PHD JAFARI,PHD ISLAMIC AZAD UNIVERSITY OF NAJAFABAD BARANCH.
Lecture 16. LIPS. Introduction a type of atomic emission spectroscopy which uses a highly energetic laser pulse as the excitation source. The laser is.
CHEMISTRY ANALYTICAL CHEMISTRY Fall Lecture 1.
HL Chemistry - Option A: Modern Analytical Chemistry ATOMIC ABSORPTION SPECTROSCOPY.
Atomic Emission Spectroscopy
427 PHC.  Atomic emission spectroscopy (AES) is based upon emission of electromagnetic radiation by atoms.
LIBS : L aser I nduced B reakdown S pectroscopy LIBS is an analytical method by which one can determine (qualitatively and quantitatively) the elemental.
A Fundamental Study of Laser- Induced Breakdown Spectroscopy Using Fiber Optics for Remote Measurements of Trace Metals Scott R. Goode and S. Michael Angel.
Trilateral Euregio Cluster TEC Institut für Plasmaphysik Assoziation EURATOM-Forschungszentrum Jülich Development of in situ diagnostic for fuel retention,
Laser Machining of Structural Ceramics: An Integrated Experimental & Numerical Approach for Surface Finish Hitesh D. Vora and Narendra B. Dahotre Laboratory.
Atomic Emission - AES M* → M + hn Thermal excitation M → M*
Infrared Radiation 780 nm m Near, Mid and Far
CHE 315 – Lecture 1 8/29/05 Introduction. Syllabus highlights.
LSRL 06 Nov, 2003, IAEA CRP Meeting in Vienna Feasibility study on Scalable Self-Phase Locking of two beam combination using stimulated Brillouin scattering.
بسم الله الرحمن الرحيم Compositional Study of Different Currency Coins Using Non-Destructive Laser Induced Breakdown Spectroscopy 2nd SASC Muharram, 1425.
Types of experimental error
LIBS Detector System Design & Preliminary Testing David Hahn, Tom Moskal, Ken Iida Department of Mechanical Engineering University of Florida July 9, 2001.
Workshop PET/SPECT/RADIO-ISOTOPES in Greece 26 June 2006 The XRF method: Development and Applications Ch. Zarkadas and A.G. Karydas N.C.S.R. “Demokritos”,
Atomic Emission Spectroscopy
Atomic Emission Spectrometry
B&W Tek Portable Raman Spectrometers In Art and Archeology RAA 2013.
Laser Induced breakdown spectroscopy in Water for elemental analysis.
Flame Photometry The principles.
Biomedical Applications of Plasma Spectroscopy: A Preliminary Study Dr. Unnikrishnan V. K. Associate Professor Department of Atomic and Molecular Physics.
CPAC Webinar Feb Process Spectroscopy and Optical Sensing
Presented at PITTCON 2003, March 9-14 Orlando Florida IN-SITU MONITORING OF QUALITY OF PHARMACEUTICAL PRODUCTS USING LASER BREAKDOWN SPECTROSCOPY.
On the use of LIBS to determine the fractional abundances of carbon ions in the laser plasma plume M. Naiim Habib 1, Y. Marandet 2, L. Mercadier 3, Ph.
Introduction to Chemistry The Six Main Branches of Chemistry.
1Managed by UT-Battelle for the U.S. Department of Energy Contact: Madhavi Z. Martin, , Funding: DOE Office of Science, Biological.
Materials Stephen RoneyJICSeptember, china Stephen Roney JIC September, 2013.
NANO 225 Intro to Nano/Microfabrication
QUANTITATIVE ANALYSIS Determining amount of ions present in samples.
A new method for first-principles calibration
Groundwater Pollution
On-line Sorting Technologies for CCA Treated Wood Sarasota Team Meeting June 5, 2001.
Consumer Research Ch 2. Types Qualitative Research Glean insight Quantitative Research Draw conclusions.
Single Molecule Raman Detection with a Composite Microresonator and Metal Nanocavity System Xudong Fan (University of Missouri – Columbia) WGM field profile.
Introduction to Chemistry The Six Main Branches of Chemistry.
SCANNING LIDAR FLUOROSENSOR FOR REMOTE DIAGNOSTIC OF SURFACES Luisa Caneve F. Colao, R. Fantoni, L. Fiorani, A. Palucci ENEA - UTAPRAD Technical Unit Development.
Gas Chromatography Gas Chromatography Effendy De Lux Putra.
K. Mouhoubi 1, S. Gomis 1, J.L. Bodnar 1, V. Detalle 2 1 GRESPI/ECATHERM, UFR Sciences Exactes et Naturelles, BP 1039, Reims cedex 02 2 LRMH, 29.
Picture #ObservationInference
Separating Mixtures Differences in physical properties can be used to separate mixtures What are some physical properties we can use to separate mixtures?
Page 1 NMR Services —by Creative Biostructure. Page 2 NMR spectroscopy is a key analytical technique for structure elucidation of a wide range of materials.
UV/VIS SPECTROSCOPY.
XPS X-ray Photoelectron Spectroscopy
ABLATIVE LASER/MASS SPECTROMETRY FOR DEPTH-PROFILING AND SURFACE STUDIES – AN OVERVIEW Presenter: Avin Pillay, The Petroleum Institute, Abu Dhabi, UAE.
From: Deburring Effect of Plasma Produced by Nanosecond Laser Ablation
Quality inspection with LIBS for grey & red bathes
Syedah Sadaf Zehra DCU and UNIPD Supervisors
THERMOGRAVIMETRIC ANALYSIS (TGA)
الأستاذة الدكتورة/ نجوى فهيم زهران
Date of download: 1/3/2018 Copyright © ASME. All rights reserved.
From: Magnetic Field Effects on Laser Drilling
From: Deburring Effect of Plasma Produced by Nanosecond Laser Ablation
Chapter 8: Sampling, Standardization & Calibration
Analysis of samples exposed to Pilot–PSI Plasma
انواع المخاليط (التدريس الابداعي )
القراءة الناقدة و المتعمقة وتحليل البيانات الكمية و الكيفية In-depth and critical reading Qualitative and quantitative analysis ورشة لمقرر دراسات و ابحاث.
بسم الله الرحمن الرحیم.
Colourimetry The absorption of light by a coloured solution is directly related to the concentration of the solution. Colourimetry determines the concentration.
C.2.10 Sample Questions.
Start to end design of a dedicated laser driven proton hybrid beamline for Cultural heritage applications Antonia Morabito 15 October 2018.
C.2.8 Sample Questions.
C.2.8 Sample Questions.
Operating environment:
Presentation transcript:

Laser-induced breakdown spectroscopy (LIBS)- application in archaeology and art

Experimental set-up for LIBS analysis λ = 1064 nm E= 5-10 mJ t= 5 ns Repetition rate – 10 Hz

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Crater, formed after laser ablation crater

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Qualitative analysis

Quantitative analysis Calibration curve for quantitative analysis of the bronze samples SampleSn, %w/wCu, %w/w Sample 617.5± Sample ± Sample 127.2± Sample ± Sample ±1.487 Sample ±

Why LIBS in cultural heritage? straightforward and simple analytical technique; very rapid technique, giving results within seconds; minimally destructive; sample preparation is minimized; ability to analyze solid, liquid or gaseous samples, including metals, ceramics, marble, stone, glass, pigments, biomaterials; no limitation for the size of the samples; ability to depth profile of the sample; ability to provide both qualitative and quantitative multi-elemental analysis; possibility of using the technique in situ.

Possibility of using the technique in situ