
Carbon-14 Course
Master the complete science of carbon-14 dating, from atomic decay principles to advanced Bayesian chronological modelling. This course equips researchers, archaeologists, and geoscientists with the technical skills to collect, measure, calibrate, and interpret radiocarbon data with confidence. Whether you work in the field or the laboratory, you will gain the rigorous, practical expertise that modern dating programmes demand.
What you will learn:
Gain a solid grasp of radioactive decay, isotope formation, and the global carbon cycle that underlie radiocarbon measurements. Learn field sampling protocols, contamination removal, and lab preparation for AMS and beta-counting. The course covers calibration curve construction, plateau regions, and software steps to produce reliable calendar ages. Apply statistical tools such as chi‑square tests, error propagation, and Bayesian sequence models to evaluate and report results. Address reservoir effects in marine, lacustrine, and dietary contexts with practical corrections. Explore advanced topics like wiggle‑matching, ultra‑small sample AMS, forensic bomb‑pulse dating, and ethical compliance for heritage materials.
How you study in practice Carbon-14 Course
How you practise Carbon-14 Course
For businesses looking to train their team
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Radiocarbon Science
Foundations of Radiocarbon Science
Lesson 1 • Historical Discovery of Radiocarbon Dating
Traces Libby's original work and early validation against known-age samples. Contextualises the scientific milestones that shaped modern practice.
Lesson 2 • Carbon Reservoirs and Global Cycling
Maps carbon exchange amongst atmosphere, oceans, biosphere, and lithosphere. Establishes why reservoir effects complicate age interpretation.
Lesson 3 • Atomic Structure and Isotope Basics
Covers protons, neutrons, and electron configuration as they define isotopes. Grounds all subsequent radiocarbon concepts in atomic theory.
Lesson 4 • Formation of Carbon-14 in Nature
Explains cosmic-ray bombardment of nitrogen-14 in the upper atmosphere. Links natural production to the global carbon cycle.
Lesson 5 • Radioactive Decay Principles
Introduces beta-minus decay, decay constants, and half-life as core quantitative tools. Provides the mathematical backbone for all dating calculations.
Chapter 2HideHide detailsSee detailsSample Collection and Preservation
Sample Collection and Preservation
Lesson 1 • Contamination Identification and Removal
Identifies exogenous carbon sources including rootlets, humic acids, and conservation treatments. Teaches visual and chemical screening before pretreatment.
Lesson 2 • Field Sampling Protocols
Establishes sterile collection, contextual documentation, and chain-of-custody procedures. Prevents post-depositional contamination before laboratory intake.
Lesson 3 • Material Types Suitable for Dating
Surveys organic and inorganic materials that retain original carbon. Guides selection decisions based on preservation potential and dating range.
Lesson 4 • Sample Size and Quantity Requirements
Quantifies minimum mass requirements for AMS and beta-counting methods. Helps practitioners plan collection to avoid insufficient material.
Lesson 5 • Documentation and Submission Standards
Covers laboratory submission forms, metadata requirements, and sample labelling conventions. Ensures data traceability from field to final report.
Chapter 3HideHide detailsSee detailsMeasurement Techniques and Instrumentation
Measurement Techniques and Instrumentation
Lesson 1 • Conventional Beta-Counting Methods
Covers gas proportional counting and liquid scintillation counting as legacy techniques. Connects detector physics to practical sensitivity and throughput limits.
Lesson 2 • Sample Preparation for Measurement
Details chemical pretreatment, graphitisation, and target pressing for AMS. Demonstrates how preparation quality directly controls measurement accuracy.
Lesson 3 • Accelerator Mass Spectrometry Principles
Explains ion source, tandem accelerator, and detector array in AMS systems. Establishes why AMS achieves milligram-scale sample analysis.
Lesson 4 • Quality Assurance in the Laboratory
Covers contamination control, duplicate analysis, and inter-laboratory comparison programmes. Ensures students can implement and audit a robust QA framework.
Lesson 5 • Instrument Calibration and Standards
Introduces primary and secondary reference materials used to normalise measurements. Links calibration rigour to inter-laboratory comparability.
Chapter 4HideHide detailsSee detailsCalibration of Radiocarbon Ages
Calibration of Radiocarbon Ages
Lesson 1 • Plateau Regions and Ambiguous Dates
Identifies flat sections of the calibration curve that produce multimodal probability distributions. Teaches strategies to resolve or communicate ambiguity.
Lesson 2 • Why Calibration Is Necessary
Explains atmospheric C-14 variation driven by solar activity and geomagnetic changes. Demonstrates the divergence between radiocarbon years and calendar years.
Lesson 3 • Construction of Calibration Curves
Details how dendrochronology, speleothems, and marine sediments build the calibration dataset. Connects curve construction methods to their uncertainty ranges.
Lesson 4 • Marine and Hemispheric Corrections
Applies marine reservoir correction and Southern Hemisphere offset to appropriate samples. Ensures geographically correct calibration for non-atmospheric samples.
Lesson 5 • Calibration Software and Procedures
Guides users through Bayesian calibration software interfaces and input parameters. Produces probability distributions from raw radiocarbon measurements.
Chapter 5HideHide detailsSee detailsStatistical Interpretation of Results
Statistical Interpretation of Results
Lesson 1 • Bayesian Modelling of Chronologies
Integrates prior stratigraphic information with radiocarbon likelihoods using Bayesian methods. Produces posterior age estimates with reduced uncertainty.
Lesson 2 • Outlier Detection and Treatment
Identifies anomalous dates caused by contamination, old-wood effect, or intrusion. Applies outlier models within Bayesian frameworks to down-weight suspect dates.
Lesson 3 • Chi-Square Test for Date Consistency
Uses the chi-square statistic to test whether multiple dates from one context are statistically consistent. Guides decisions on pooling or rejecting dates.
Lesson 4 • Measurement Uncertainty and Error Propagation
Defines counting statistics, systematic errors, and combined uncertainty in radiocarbon measurements. Builds the quantitative foundation for all result interpretation.
Lesson 5 • Reporting Standards and Best Practices
Applies internationally recognised conventions for expressing radiocarbon ages and calibrated ranges. Ensures results are reproducible and comparable across studies.
Chapter 6HideHide detailsSee detailsReservoir Effects and Correction Strategies
Reservoir Effects and Correction Strategies
Lesson 1 • Dietary Reservoir Effects in Human Remains
Quantifies how marine or freshwater food consumption shifts apparent age in human bone. Integrates stable isotope data to model dietary carbon sources.
Lesson 2 • Freshwater and Lacustrine Reservoir Effects
Identifies hardwater effect and catchment geology as sources of freshwater reservoir bias. Provides methods to estimate and subtract lacustrine offsets.
Lesson 3 • Compound-Specific Radiocarbon Analysis
Introduces isolation of specific organic compounds for targeted dating of individual carbon pools. Reduces reservoir ambiguity in complex sediment and food matrices.
Lesson 4 • Volcanic and Geothermal Carbon Inputs
Addresses dead carbon from volcanic CO2 degassing near geothermal areas. Teaches site-specific assessment and correction for affected samples.
Lesson 5 • Marine Reservoir Effect Mechanisms
Explains deep-water upwelling and slow CO2 exchange as drivers of marine reservoir offset. Quantifies the global average offset and its regional variability.
Chapter 7HideHide detailsSee detailsApplications in Archaeology and Geology
Applications in Archaeology and Geology
Lesson 1 • Forensic and Recent-Age Applications
Exploits the bomb-pulse curve to date materials produced after 1950 CE. Covers forensic identification, food fraud detection, and wildlife trafficking cases.
Lesson 2 • Building Archaeological Site Chronologies
Integrates radiocarbon dates with stratigraphy and artefact typology to construct site timelines. Demonstrates multi-date Bayesian modelling for occupation phases.
Lesson 3 • Human Migration and Cultural Transitions
Applies high-precision dating to trace population movements and technological change. Evaluates the old-wood problem and short-lived sample strategies.
Lesson 4 • Paleoclimate and Environmental Reconstruction
Uses radiocarbon-dated proxies to reconstruct past climate and vegetation change. Links chronological precision to the resolution of palaeoenvironmental records.
Lesson 5 • Dating Geological Events and Sediments
Applies radiocarbon to volcanic eruptions, glacial advances, and lake sediment cores. Addresses the unique challenges of bulk sediment and reworked material.
Chapter 8HideHide detailsSee detailsAdvanced Topics and Emerging Developments
Advanced Topics and Emerging Developments
Lesson 1 • Radiocarbon in Climate and Carbon Cycle Modelling
Uses radiocarbon as a tracer to constrain ocean circulation rates and carbon cycle dynamics. Connects measurement data to Earth system model validation.
Lesson 2 • Ethical and Regulatory Considerations
Addresses sample ownership, indigenous heritage rights, and export regulations for datable materials. Prepares practitioners to navigate ethical review and compliance requirements.
Lesson 3 • Future Calibration Curve Improvements
Reviews ongoing efforts to extend and refine calibration curves beyond current limits. Addresses gaps in the Southern Hemisphere and marine records.
Lesson 4 • Wiggle-Matching for High-Precision Dating
Matches a series of internally spaced radiocarbon dates to calibration curve features. Achieves decadal precision for tree-ring and laminated sediment sequences.
Lesson 5 • Ultra-Small Sample AMS Techniques
Covers gas-ion-source AMS and single-compound dating at microgram carbon levels. Expands dating capability to precious artefacts and micro-fossils.
Your valid completion certificate
This course is for you:
Archaeologist: needs reliable chronological frameworks for excavation reports.
Geology graduate student: building skills to date sediment cores and events.
Museum conservator: authenticating artefacts using bomb-pulse and decay analysis.
Environmental scientist: reconstructing past climate through dated proxy records.
Forensic investigator: applying radiocarbon to human remains and fraud cases.
Science educator: deepening subject knowledge to teach isotope dating confidently.
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