
Clinical Cytogenetics Training Course
Master the full spectrum of cytogenetic laboratory practice, from chromosome banding and FISH to microarray analysis and cancer cytogenetics. This course equips you with the technical skills and interpretive expertise demanded by modern clinical and research genetics laboratories. Build the competency needed to advance your career as a certified cytogeneticist.
What you will learn:
You will develop a thorough understanding of chromosome biology, cell division, and inheritance patterns that underpin every cytogenetic diagnosis. You will gain hands-on proficiency in conventional banding techniques, FISH protocols, and chromosomal microarray platforms. The course covers prenatal, postnatal, and oncology cytogenetics workflows, including specimen handling and quality management. You will learn to write standardised ISCN nomenclature and produce clear, clinically actionable reports. Emerging technologies such as low-pass whole genome sequencing, optical genome mapping, and AI-assisted karyotyping are also addressed.
How you study in practice Clinical Cytogenetics Training Course
How you practise Clinical Cytogenetics Training Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your company and its specific needs.
Course content
8 Chapters • 38 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Human Genetics
Foundations of Human Genetics
Lesson 1 • Chromosome Structure and Organisation
Covers chromatin packaging, centromere and telomere biology, and chromosome banding nomenclature. Establishes the structural vocabulary used throughout the course.
Lesson 2 • Genome Organisation and Variation
Introduces repetitive elements, copy number variants, and polymorphic regions. Prepares students to distinguish pathogenic variants from benign population variation.
Lesson 3 • Mendelian and Non-Mendelian Inheritance
Reviews autosomal and X-linked inheritance, imprinting, and uniparental disomy. Provides the genetic framework for interpreting cytogenetic findings clinically.
Lesson 4 • Cell Division and Chromosome Dynamics
Explains mitosis and meiosis with emphasis on chromosome segregation errors. Links division errors to numerical abnormalities detected in the lab.
Chapter 2HideHide detailsSee detailsLaboratory Safety and Specimen Handling
Laboratory Safety and Specimen Handling
Lesson 1 • Biosafety Levels and Hazard Control
Defines biosafety classifications and required containment measures for human tissue. Ensures students can assess risk and select appropriate personal protective equipment.
Lesson 2 • Specimen Types and Accessioning
Covers blood, bone marrow, amniotic fluid, CVS, and tissue specimen requirements. Connects proper accessioning to downstream culture success and result accuracy.
Lesson 3 • Quality Management in the Laboratory
Introduces quality indicators, nonconformance tracking, and regulatory compliance concepts. Builds the documentation habits required for accreditation and audit readiness.
Lesson 4 • Specimen Transport and Storage
Addresses temperature requirements, transport media, and time-sensitive handling. Prevents pre-analytical errors that compromise chromosome morphology.
Chapter 3HideHide detailsSee detailsConventional Cytogenetic Techniques
Conventional Cytogenetic Techniques
Lesson 1 • Chromosome Harvest Procedures
Details colcemid treatment, hypotonic shock, and fixation steps for metaphase preparation. Optimising each step directly determines spread quality and band resolution.
Lesson 2 • Specialised Culture Systems
Addresses amniotic fluid, chorionic villus, bone marrow, and solid tumour culture methods. Expands technical competency across the full range of clinical specimen types.
Lesson 3 • Slide Aging and Staining Optimisation
Explains slide aging, destaining, and restaining to maximise band resolution. Connects staining quality to accurate karyotype analysis and reporting.
Lesson 4 • Chromosome Banding Methods
Covers G-, Q-, R-, and C-banding protocols and their diagnostic applications. Each banding type reveals distinct chromosomal features used in specific clinical contexts.
Lesson 5 • Cell Culture Fundamentals
Teaches media preparation, sterile technique, and culture conditions for lymphocytes and fibroblasts. Directly enables successful chromosome harvest in subsequent sections.
Chapter 4HideHide detailsSee detailsKaryotype Analysis and ISCN Nomenclature
Karyotype Analysis and ISCN Nomenclature
Lesson 1 • Microscopy and Image Capture
Covers brightfield microscopy setup, oil immersion technique, and digital image acquisition. Proper microscopy technique is prerequisite to accurate chromosome analysis.
Lesson 2 • Structural Chromosome Abnormalities
Covers deletions, duplications, inversions, translocations, and marker chromosomes. Builds the analytical skills needed to characterise complex rearrangements accurately.
Lesson 3 • ISCN Nomenclature and Karyotype Writing
Applies current ISCN rules to describe numerical and structural abnormalities precisely. Standardised notation ensures unambiguous communication across laboratories and clinicians.
Lesson 4 • Chromosome Identification and Pairing
Teaches systematic identification of all 24 chromosome types by size, centromere position, and banding pattern. Accurate pairing is the foundation of karyotype construction.
Lesson 5 • Numerical Chromosome Abnormalities
Identifies trisomies, monosomies, polyploidy, and aneuploidy patterns in clinical specimens. Connects numerical findings to clinical syndromes and referral indications.
Chapter 5HideHide detailsSee detailsFluorescence In Situ Hybridisation
Fluorescence In Situ Hybridisation
Lesson 1 • Oncology FISH Applications
Addresses fusion, break-apart, and amplification probes used in haematologic and solid tumour diagnosis. Integrates FISH findings with morphology and clinical context.
Lesson 2 • Fluorescence Microscopy and Signal Scoring
Covers filter set selection, signal enumeration criteria, and normal signal pattern establishment. Accurate scoring requires defined cutoffs derived from normal control populations.
Lesson 3 • FISH Principles and Probe Types
Explains hybridisation kinetics, probe labelling chemistry, and probe categories. Understanding probe design is essential for selecting the correct assay for each clinical question.
Lesson 4 • FISH Hybridisation Protocol
Details slide pretreatment, probe application, co-denaturation, and post-hybridisation washes. Each step affects signal intensity and specificity critical for accurate scoring.
Lesson 5 • Constitutional FISH Applications
Applies FISH to microdeletion syndromes, sex chromosome abnormalities, and marker characterisation. Connects FISH findings to karyotype results from Chapter 4.
Chapter 6HideHide detailsSee detailsChromosomal Microarray Analysis
Chromosomal Microarray Analysis
Lesson 1 • Variant Classification and Reporting
Applies evidence-based classification criteria to categorise CNVs as pathogenic, benign, or uncertain. Connects classification decisions to clinical reporting language and genetic counselling.
Lesson 2 • Microarray Platform Technologies
Compares array CGH and SNP array designs, probe density, and resolution capabilities. Platform selection directly affects the types of variants detectable in clinical practice.
Lesson 3 • Array Processing and Data Acquisition
Details hybridisation, washing, scanning, and raw data extraction steps. Consistent processing reduces technical noise that can obscure true copy number changes.
Lesson 4 • Copy Number Variant Analysis
Teaches log2 ratio interpretation, segmentation algorithms, and CNV calling. Accurate CNV calling requires integrating signal data with genomic context and database resources.
Lesson 5 • DNA Extraction and Labelling
Covers DNA extraction from blood and tissue, quality assessment, and fluorescent labelling. Input DNA quality is the primary determinant of array data quality.
Chapter 7HideHide detailsSee detailsCancer Cytogenetics
Cancer Cytogenetics
Lesson 1 • Minimal Residual Disease Monitoring
Applies FISH and karyotype to track treatment response and relapse in haematologic cancers. Connects cytogenetic monitoring to clinical decision-making and therapy adjustment.
Lesson 2 • Solid Tumour Cytogenetics
Addresses characteristic rearrangements in sarcomas, carcinomas, and paediatric tumours. Extends cytogenetic pattern recognition beyond haematology to solid tumour diagnostics.
Lesson 3 • Haematologic Malignancy Cytogenetics
Covers recurrent abnormalities in leukaemias, lymphomas, and myeloma with diagnostic and prognostic significance. Builds disease-specific pattern recognition essential for oncology reporting.
Lesson 4 • Integrated Oncology Reporting
Synthesises karyotype, FISH, and array data into a unified oncology cytogenetic report. Emphasises clinically actionable language and multidisciplinary communication.
Lesson 5 • Clonal Evolution and Cytogenetic Instability
Explains clonal selection, chromosomal instability mechanisms, and tumour heterogeneity. Provides the conceptual basis for interpreting complex cancer karyotypes.
Chapter 8HideHide detailsSee detailsPrenatal and Postnatal Cytogenetics
Prenatal and Postnatal Cytogenetics
Lesson 1 • Genetic Counselling Interface
Prepares cytogeneticists to communicate findings clearly to genetic counsellors and clinicians. Covers recurrence risk concepts, parental studies, and result disclosure practices.
Lesson 2 • Mosaicism Detection and Interpretation
Explains mosaic detection thresholds, tissue-specific mosaicism, and reporting challenges. Accurate mosaic interpretation requires integrating cell counts with clinical context.
Lesson 3 • Postnatal Constitutional Cytogenetics
Addresses indications and workflows for peripheral blood karyotyping in children and adults. Covers common constitutional syndromes identified postnatally.
Lesson 4 • Common Prenatal Chromosomal Findings
Identifies trisomies 21, 18, and 13, sex chromosome aneuploidies, and structural rearrangements in prenatal specimens. Connects cytogenetic findings to fetal phenotype and prognosis.
Lesson 5 • Prenatal Specimen Processing
Covers amniotic fluid, CVS, and fetal blood culture and harvest for prenatal diagnosis. Specimen-specific protocols directly affect culture success and result turnaround.
Your valid completion certificate
This course is for you:
Medical laboratory scientist: seeking to specialise in chromosomal and genomic diagnostics.
Genetics graduate student: building practical lab skills to complement academic training.
Clinical laboratory technician: ready to advance into a higher-complexity diagnostic specialty.
Genetic counsellor in training: wanting deeper technical grounding in cytogenetic methods.
Career changer from biology or biomedical research: pursuing a clinical diagnostics pathway.
Pathology professional: expanding expertise to include chromosomal abnormality interpretation.
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