Table of Content
- 210-Po and 210-Pb
- 234m-Pa Radionuclide Generator
- A few Definitions used in this exercise
- Accuracy and Precision
- Alpha\Beta-Discrimination
- Analysis of Sediment Containing Pu and Am
- Analyzing a Two-component Decay Curve
- Analyzing the Production Curve of n-activated Ag
- Argon-Argon
- Background for Calculations on Uranium
- Basic Laboratory Procedures for Radiochemistry
- Basic Usage of a HPGe-detector - Laboratory Exercise
- Basics about Efficiency Calibration of Gamma Detectors
- Bruce Hanson
- Calculation Exercises
- Cesium
- CINCH Project and Consortium
- CINCH-exercise
- Computing in Science Education (CSE) Exercises
- Contamination and dose rate monitoring
- Cosmogenic Radionuclides
- CSE Exercise - Simulating a Gamma-ray Detector
- CSE Exercise - Simulation of Radionuclide Genetic-Dependency (Mother-Daughter relationship)
- CSE Exercise - Simulation of Transuranium Waste Generation
- CSE Exercise Simulating Transuranium Waste - Examples of Results Obtained
- CSE Teachers Guide - Simulation of Transuranium Waste Generation
- Detection and Quantification
- Detection of radioactivity laboratory exercises
- Determination of 210-Po from Vegetation
- Determination of 90-Sr from Milk Powder
- Determination of Chemical Yield
- Determination of Fe-55 in Nuclear Waste
- Determination of Low Solubilities
- Determination of Plutonium and Americium from a Sediment Sample
- Determination of the 238-U 234-U Ratio
- Determination of the Specific Surface Area of an Insoluble Substance
- Determination of Uranium Concentration and the 234-U 238-U Isotopic Ratio in a Solution
- DOPAS brochure
- Energy Calibration of Gamma-ray Spectra - Laboratory Preparation Exercise
- Energy calibration procedure
- Environmental laboratory exercises
- EuroMaster Certificate in Nuclear and Radiochemistry (NRC)
- Evaluation of Type A and Type B Uncertainties
- Execution of PHREEQC Calculations
- Exercises with Amount of Radioactive Material (number of nuclei, number of moles, weight) and the Law of Radioactive Decay
- Exercises with Fission and Nuclear Reactors
- Exercises with Mass, Binding Energy and the Liquid Drop Model
- Exercises with Mother Daughter Relations and Equilibrium
- Exercises with Particles and Nuclear Reactions
- Exercises with Radiation Dosage and Radiation Protection
- Exercises with the Chart of Nuclides
- Experimental procedure for determination of low solubilities
- Experimental procedure for determination of the specific surface are of an insoluble substance
- Experimental Procedure for Gamma Spectroscopy
- Experimental procedure for Introduction to Radioimmunoassay
- Experimental procedure for Isotopic dilution
- Experimental procedure for quench corrections in liquid scintillation counting
- experimental procedure for radiolabelling of aspirin
- Experimental procedure for the Measurement of Isotopes using Cerenkov Radiation
- Experimental procedure for the separation of 234mPa from 238U and measurement of its half-life
- Experimental procedure for the separation of radioisotopes by solvent extraction
- Extraction and Measurement of 99mTc from a Isotope Generator
- FAQ
- Feedback from Teachers and Students about the CSE Simulation of a Nuclear Reactor
- Gamma Detection and Spectroscopy - Laboratory Exercise
- Gamma Spectroscopy
- Gamma Spectroscopy and Detectors
- Gamma Spectroscopy of NORM and TENORM
- Gamma-ray energy tables
- Gamma-ray interaction with detector
- Geiger-Müller Counter and Counting Efficiency
- General Description of Computing in Science Education (CSE) exercises
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- home
- How to Calculate End-of-Irradiation Yields of Ag-isotopes
- How to Measure the Decay of n-activated Silver
- How to use NucWik
- Interfering Processes
- Introduction to Detection of Gamma Radiation
- Introduction to Isotopic Exchange Reactions
- Introduction to liquid scintillation counting
- Introduction to Naturally Occurring Radioactivity
- Introduction to Radioactivity (short)
- Introduction to Radiochemistry
- Introduction to Radioimmunoassay
- Introduction to Statistics
- Introductory laboratory exercises
- Ion exchange on insoluble crystal surfaces
- Isotopic Dilution
- Isotopic Exchange Reactions
- Isotopic Ratio of Natural Uranium
- KJM 3700 Environmental Chemistry I
- Laboratory Exercises
- Links to external tools
- Liquid Scintillation Counting
- Liquid-liquid Extraction of 99mTc
- List of Individual Courses
- Loughborough University Module CMB008
- LSC Principles
- Master in Radioecology
- Measurement of 55Fe by Liquid-Scintillation Counting
- Measurement of Isotopes using Cerenkov Radiation
- Measurement, uncertainty and Detection Limits
- Milk Powder and Strontium
- Mojmir
- NAA of Chlorine
- Naturally Occuring Radioactivity - NORM and TENORM
- Neutron Activation Analysis
- Neutron Activation of Ag
- Neutron Activation of Ag with a Pu\Be n-source
- Neutron Activation of Silver and two Component Decay
- new page
- NORM and TENORM
- NRC EuroMaster - List of Minimum Knowledge Skills, and Abilities
- Nuclear and Radiochemistry Textbook and Compendia
- Nuclear Chemistry Textbook
- Nuclear Methods in Materials Dating
- Nuclear Waste simulation solved in Labview
- Nuclear waste simulation, general programming tips
- NucWik Talks and Presentations
- NucWik Training Course for Teachers
- Page Å
- Page Ö
- PHREEQC
- PHREEQC files for Uranium Calculations
- Polonium Deposition on Silver Disc
- Polonium-Lead
- Potassium-Argon
- Practical Exercise for Liquid Scintillation
- Preparation of 14-C Labelled Aspirin
- Preparation of an Uraniumoxide Sample
- Principle Behind Mother-Daughter Relationship
- Probability and Distribution
- Procedure for Energy Efficiency calibration
- Procedure to Isotopic Exchange Reactions
- Production and Creation of Fe-55
- Production and Measurement of a 234mPa Nuclide Generator
- Programming tips for Nuclear Fuel Composition Labview
- Quench corrections in liquid scintillation counting
- Questions for Introduction to Radiochemistry
- Radiocarbon
- Radionuclide generator
- RoboLab Exercise - Absorption and Detection of gamma-radiation
- RoboLab Exercise - Autodeposition on different metals
- RoboLab Exercise - HPGe γ-spectroscopy of environmental samples
- RoboLab Exercise - Ion Exchange Column with On-line Detection
- RoboLab Exercise - n-activation of Ag
- RoboLab Exercise - Separation and Detection of 234mPa
- RoboLab Exercises
- RoboLab n-activation of Ag - Preparations
- Robolab procedure for absorption of γ-radiation
- Rubidium-Strontium
- Safe working Practice in the Radionuclide Laboratory and preparation of Counting Samples
- Safety Rules in Radiochemistry
- Samarium-Neodynium
- Scale and Radioactivity
- Separation of 234mPa from 238U and measurement of its half-life
- Separation of 55Fe
- Separation of Strontium from Milk Powder
- Simulation of NRC Related Processes
- Simulation of Two-component Decay
- SLH Page
- space.menu
- space.template.Computers in Education (CiE) exercises
- space.template.Lab exercise template
- Speciation Calculation of Uranium in Oxic Conditions as a Function of pH using PHREEQC
- Speciation of Uranium
- Stable and Unstable Nuclei
- Student Guide - Introduction to Simulation of Transuranium Waste Generation
- Student Guide - Simulation of Genetically Dependent Radionuclids (Mother-Daughter relationship) CSE Exercise
- Student Guide on how to Write a Program for Simulation of Gamma Detection
- Student Guide to a Computer Program which Simulate Gamma-ray Detection
- Suggested assumptions for nuclear fuel simulation
- Suggested Solutions to Amount of Radioactive Material (number of nuclei, number of moles, weight) and the Law of Radioactive Decay
- Suggested Solutions to Exercises with the Chart of the Nuclides
- Suggested Solutions to Fission and Nuclear Reactors
- Suggested Solutions to Mass, Binding Energy and the Liquid Drop Model
- Suggested Solutions to Mother Daughter Relations and Equilibrium
- Suggested Solutions to Particles and Nuclear Reactions
- Suggested Solutions to Radiation Dosage and Radiation Protection
- Test 1
- Test page
- Test work with NucWik
- TESTING
- Textbook Main Chapter - Radiation Safety and Health Hazards
- Textbook Sub-chapter - Interaction between Radiation and Matter
- Textbook Sub-chapter - Liquid Scintillation Detectors
- Textbook Sub-chapter - Naturally Occuring Radioactivty
- Textbook Sub-chapter - Neutron Activation Analysis
- Textbook Sub-chapter - Radiation Dose
- Textbook Sub-chapter - Radioactive Disintegration
- Textbook Sub-chapter - The Oil and Gas Industry
- The Measurement of Isotopes using Cerenkov Radiation
- The separation of radioisotopes by solvent extraction
- Theoretical Background for Isotopic Dilution
- Theoretical background for radioimmunoassay
- Theoretical Background to Isotopic Exchange Reactions
- Theory behind Extraction of 55Fe
- Tracers and solubility
- Uncertainty and Errors
- Uncertainty Classes, Significant Figures and Uncertainty Estimation
- Uranium Series Disequilbrium
- User Feedback from RoboLab Exercise on Gamma-absorption
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- Wet Digestion of Plant Samples
- Working With Radioactive Material
- Yield in Neutron Activation and Nuclear Reactions