
Metazoans Course
Master the full scope of animal life, from the earliest Precambrian fossils to the behavioural ecology of modern vertebrates. This course delivers a rigorous, research-grounded survey of metazoan biology, covering phylogeny, physiology, development, and conservation. Whether you're pursuing zoology, ecology, or evolutionary biology, this is the comprehensive foundation you need.
What your team will master:
You will build a thorough understanding of animal diversity, starting with the defining features of metazoans and their evolutionary origins. You will explore cell biology, tissue types, and organ systems across invertebrate and vertebrate groups. The course covers phylogenetic methods, developmental genetics, and reproductive strategies in detail. You will also examine animal ecology, behaviour, parasitology, and conservation biology. Supplementary modules introduce genomics, palaeozoology, field sampling, and scientific communication skills used in professional zoological research.
How your team learns in practice Metazoans Course
How your team practises Metazoans Course
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Course content
8 Chapters • 38 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsIntroduction to Metazoan Life
Introduction to Metazoan Life
Lesson 1 • Overview of Animal Diversity
Surveys the breadth of animal phyla from sponges to vertebrates. Provides a conceptual map students use throughout the course.
Lesson 2 • Defining Metazoans
Metazoans are multicellular animals with specialised tissues; this section establishes their core biological identity. Students distinguish metazoans from protists and fungi.
Lesson 3 • Evolutionary Origins of Animals
Traces the Precambrian origins of metazoans and the Cambrian explosion. Students connect fossil evidence to living lineages.
Lesson 4 • Basic Animal Body Plans
Introduces symmetry, germ layers, and body cavities as organising principles. These concepts recur in every subsequent chapter.
Chapter 2HideHide detailsSee detailsAnimal Cell Biology and Tissues
Animal Cell Biology and Tissues
Lesson 1 • Muscle and Nervous Tissues
Introduces the contractile and signalling tissues that define animal behaviour. Prepares students for organ system and locomotion chapters.
Lesson 2 • Connective and Supportive Tissues
Covers loose connective, dense connective, cartilage, bone, and blood as tissue subtypes. Students map each tissue to structural and transport roles.
Lesson 3 • Animal Cell Structure
Reviews organelles unique or prominent in animal cells, including centrioles and lysosomes. Connects cell structure to multicellular function.
Lesson 4 • Epithelial Tissue Types
Classifies epithelia by cell shape and layering, linking each type to its protective or secretory role. Foundational for organ system chapters.
Chapter 3HideHide detailsSee detailsPhylogeny and Classification of Metazoans
Phylogeny and Classification of Metazoans
Lesson 1 • Molecular Systematics in Animals
Applies DNA sequence data and genomic markers to resolve animal relationships. Students evaluate how molecular data revises classical taxonomy.
Lesson 2 • Basal Metazoan Lineages
Examines Porifera, Placozoa, and Cnidaria as early-diverging groups that anchor the animal tree. Students identify their diagnostic traits.
Lesson 3 • Protostome Diversity
Covers Lophotrochozoa and Ecdysozoa, the two major protostome superphyla. Students distinguish spiral cleavage from moulting-based development.
Lesson 4 • Principles of Phylogenetic Analysis
Explains cladistics, synapomorphies, and parsimony as tools for reconstructing evolutionary history. Students interpret cladograms accurately.
Lesson 5 • Deuterostome Diversity
Surveys Echinodermata, Hemichordata, and Chordata as deuterostome lineages. Students trace the origin of the vertebrate body plan.
Chapter 4HideHide detailsSee detailsInvertebrate Biology
Invertebrate Biology
Lesson 1 • Mollusca Diversity and Function
Explores the mantle, radula, and open vs. closed circulatory systems across molluscan classes. Students explain how the basic body plan diversified.
Lesson 2 • Arthropod Success and Diversity
Analyses the exoskeleton, jointed appendages, and compound eyes that drive arthropod dominance. Students compare major arthropod classes.
Lesson 3 • Porifera and Cnidaria
Details sponge filter feeding and cnidarian nematocysts as early animal innovations. Students link structure to ecological function.
Lesson 4 • Echinoderms and Minor Phyla
Covers echinoderm radial symmetry, tube feet, and regeneration alongside selected minor phyla. Students appreciate the breadth of invertebrate solutions.
Lesson 5 • Platyhelminthes and Annelida
Contrasts acoelomate flatworms with segmented coelomate annelids. Students analyse how coelom evolution expanded functional complexity.
Chapter 5HideHide detailsSee detailsVertebrate Biology and Diversity
Vertebrate Biology and Diversity
Lesson 1 • Reptiles and Amniote Evolution
Introduces the amniotic egg and key reptilian adaptations for fully terrestrial life. Students distinguish major reptile lineages including archosaurs.
Lesson 2 • Jawless and Cartilaginous Fishes
Examines agnathans and chondrichthyans as basal vertebrates with key craniate features. Students identify the significance of jaws and cartilaginous skeletons.
Lesson 3 • Birds and Mammals
Compares avian and mammalian endothermy, reproductive strategies, and derived features. Students synthesise vertebrate evolution into a coherent narrative.
Lesson 4 • Amphibians and the Tetrapod Transition
Analyses the water-to-land transition through amphibian anatomy, physiology, and life history. Students evaluate constraints imposed by dependence on moist environments.
Lesson 5 • Bony Fishes
Covers ray-finned and lobe-finned fishes, including the swim bladder and lateral line. Students connect lobe-fin anatomy to tetrapod origins.
Chapter 6HideHide detailsSee detailsAnimal Physiology and Organ Systems
Animal Physiology and Organ Systems
Lesson 1 • Respiratory Strategies
Surveys gills, lungs, tracheae, and book lungs as gas exchange solutions. Students explain how surface area and ventilation meet oxygen demand.
Lesson 2 • Digestive System Comparisons
Traces digestive complexity from gastrovascular cavities to complete alimentary canals. Students identify specialisations linked to diet.
Lesson 3 • Nervous and Endocrine Integration
Examines nerve nets, ganglia, and centralised brains alongside hormonal signalling. Students explain how integration enables coordinated behaviour.
Lesson 4 • Circulatory System Diversity
Contrasts open and closed circulatory systems, single vs. double circulation, and heart chamber evolution. Students link circulation type to metabolic demand.
Lesson 5 • Excretion and Osmoregulation
Compares protonephridia, metanephridia, Malpighian tubules, and kidneys as nitrogenous waste systems. Students connect excretory form to habitat.
Chapter 7HideHide detailsSee detailsAnimal Reproduction and Development
Animal Reproduction and Development
Lesson 1 • Organogenesis and Body Patterning
Explains how Hox genes and signalling gradients establish the body axis and organ primordia. Students connect gene expression to morphological outcomes.
Lesson 2 • Developmental Genetics and Evo-Devo
Introduces evolutionary developmental biology, showing how changes in gene regulation produce morphological diversity. Students apply evo-devo logic to case studies.
Lesson 3 • Larval Forms and Metamorphosis
Surveys trochophore, nauplius, and pluteus larvae as phylogenetically informative stages. Students interpret metamorphosis as a developmental strategy.
Lesson 4 • Early Embryonic Development
Covers cleavage patterns, blastulation, and gastrulation as universal early developmental events. Students distinguish radial, spiral, and discoidal cleavage.
Lesson 5 • Reproductive Strategies Overview
Contrasts asexual and sexual reproduction, internal vs. external fertilisation, and oviparity vs. viviparity. Students link strategy to ecological context.
Chapter 8HideHide detailsSee detailsAnimal Ecology and Behaviour
Animal Ecology and Behaviour
Lesson 1 • Social Behaviour and Cooperation
Applies kin selection, reciprocal altruism, and game theory to explain cooperative and competitive behaviours. Students evaluate evidence for each mechanism.
Lesson 2 • Animal Migration and Habitat Use
Covers navigation mechanisms, migratory routes, and habitat selection across taxa. Students assess how climate change disrupts migratory timing.
Lesson 3 • Animal Populations and Life History
Analyses survivorship curves, reproductive rates, and population growth models. Students predict population dynamics from life history parameters.
Lesson 4 • Feeding Ecology and Trophic Roles
Classifies animals by trophic level and feeding guild, linking diet to energy flow. Students construct simple food webs from field data.
Lesson 5 • Animal Communication and Sensory Ecology
Examines visual, acoustic, chemical, and electrical communication channels. Students relate signal type to habitat and receiver sensory biology.
Your valid completion certificate
This course is for you:
Biology undergraduates: needing a rigorous, integrated survey of the animal kingdom.
Ecology field technicians: wanting stronger taxonomic and physiological context for their work.
Pre-veterinary students: building comparative anatomy knowledge across invertebrate and vertebrate groups.
Science educators: refreshing and deepening their zoological content for classroom instruction.
Wildlife conservation practitioners: seeking evidence-based frameworks for population and biodiversity assessment.
Career changers from health sciences: transferring biological knowledge toward zoology or environmental research.
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