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Basic Immunology Course
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Basic Immunology Course

Unlock a comprehensive understanding of how the human immune system detects, fights, and remembers threats. From innate defences and antibody biology to vaccines, autoimmunity, and cancer immunotherapy, this course covers it all. Whether you're a student, healthcare professional, or curious learner, build the immunological fluency that matters.

Dedika for students

What your team will master:

  • Understand how innate and adaptive immunity coordinate to eliminate pathogens and build memory.

  • Analyse antigen presentation pathways and their roles in activating T and B lymphocytes.

  • Identify the cellular and molecular mechanisms underlying autoimmune disease and immune tolerance.

  • Classify hypersensitivity reactions by mechanism and connect each type to clinical outcomes.

  • Evaluate vaccine design principles, adjuvant strategies, and population-level herd immunity concepts.

  • Explore emerging fields including cancer immunotherapy, immunometabolism, and AI-driven immune research.

How your team learns in practice Basic Immunology Course

How your team practises Basic Immunology Course

Professionals from these companies study at Dedika

ActemiumFR
Nunner LogisticsNL
GT Constructora GeotécnicaCR
Sydel StarBR
Metrô de São PauloBR
Aguas AndinasCL
DSMIN
MeridianbetRS
CDHCN

Course content

8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)

Chapter 1See details

Foundations of the Immune System

  • Lesson 1 • Molecules That Drive Immunity

    Covers cytokines, chemokines, and surface receptors as communication tools. Shows how molecular signals coordinate cellular responses.

  • Lesson 2 • Cells of the Immune System

    Introduces leukocyte lineages, their origins, and their primary tasks. Provides the cellular vocabulary needed for all subsequent chapters.

  • Lesson 3 • Organs and Tissues of Immunity

    Maps primary and secondary lymphoid organs and their developmental roles. Connects organ structure to immune cell production and maturation.

  • Lesson 4 • What Immunity Means

    Defines immunity, self vs. non-self recognition, and the concept of immune surveillance. Establishes the vocabulary used throughout the course.

  • Lesson 5 • Innate vs. Adaptive Immunity

    Contrasts the speed, specificity, and memory of innate and adaptive arms. Frames the two-system model that structures the rest of the course.

Chapter 2See details

Innate Immunity in Depth

  • Lesson 1 • Phagocytosis and Killing Mechanisms

    Details how macrophages and neutrophils engulf and destroy pathogens. Introduces oxidative burst and lysosomal degradation pathways.

  • Lesson 2 • Inflammation as a Defence Tool

    Describes the cardinal signs, mediators, and phases of acute inflammation. Connects inflammatory outcomes to tissue protection and repair.

  • Lesson 3 • The Complement System

    Covers the three activation pathways and their convergent effector functions. Shows how complement bridges innate killing and adaptive priming.

  • Lesson 4 • Natural Killer Cells and Interferons

    Examines NK cell activation, missing-self recognition, and antiviral interferon responses. Demonstrates innate surveillance against infected and tumour cells.

  • Lesson 5 • Pattern Recognition and Receptors

    Explains pathogen-associated molecular patterns and the receptors that detect them. Links recognition events to downstream inflammatory signalling.

Chapter 3See details

Antigens and Antigen Presentation

  • Lesson 1 • MHC Molecules and Their Diversity

    Describes MHC class I and II structure, polymorphism, and tissue distribution. Explains how MHC diversity shapes population-level immune responses.

  • Lesson 2 • Exogenous Antigen Processing

    Follows extracellular antigen uptake, endosomal processing, and MHC class II loading. Links this pathway to CD4 T cell activation.

  • Lesson 3 • Antigen Structure and Immunogenicity

    Defines epitopes, haptens, and factors that determine immunogenicity. Establishes what makes a molecule capable of triggering an immune response.

  • Lesson 4 • Endogenous Antigen Processing

    Traces intracellular protein degradation via the proteasome and loading onto MHC class I. Connects this pathway to CD8 T cell activation.

  • Lesson 5 • Dendritic Cells as Antigen Presenters

    Highlights dendritic cell subsets, maturation signals, and migration to lymph nodes. Positions dendritic cells as the critical link between innate sensing and adaptive activation.

Chapter 4See details

T Lymphocyte Biology

  • Lesson 1 • T Cell Memory Formation

    Distinguishes effector, central, and tissue-resident memory T cell subsets. Explains the signals that determine memory longevity and recall speed.

  • Lesson 2 • T Cell Development in the Thymus

    Covers thymic selection, TCR gene rearrangement, and lineage commitment. Explains how the thymus generates a self-tolerant, MHC-restricted repertoire.

  • Lesson 3 • CD4 Helper T Cell Subsets

    Describes Th1, Th2, Th17, Tfh, and Treg differentiation driven by cytokine environments. Maps each subset to its effector function and disease relevance.

  • Lesson 4 • T Cell Receptor Signalling

    Details TCR-CD3 complex assembly, co-receptor roles, and downstream kinase cascades. Connects signal strength to activation thresholds and anergy.

  • Lesson 5 • CD8 Cytotoxic T Lymphocytes

    Explains CTL activation, granule-mediated killing, and Fas-FasL apoptosis induction. Connects CTL function to viral clearance and tumour surveillance.

Chapter 5See details

B Lymphocyte Biology and Antibodies

  • Lesson 1 • B Cell Activation Pathways

    Contrasts T-dependent and T-independent B cell activation mechanisms. Explains BCR signalling, co-stimulation, and germinal centre entry.

  • Lesson 2 • Plasma Cells and B Cell Memory

    Describes plasma cell differentiation, long-lived bone marrow niches, and memory B cell properties. Connects these to durable humoral protection.

  • Lesson 3 • Antibody Diversity and Class Switching

    Explains V(D)J recombination, junctional diversity, and somatic hypermutation. Covers cytokine-driven class switch recombination to IgG, IgA, and IgE.

  • Lesson 4 • Antibody Structure and Function

    Describes immunoglobulin domains, antigen-binding sites, and Fc effector regions. Maps each antibody function to its structural basis.

  • Lesson 5 • B Cell Development and Selection

    Traces B cell maturation from pro-B to mature naive B cell stages in bone marrow. Covers receptor editing and central tolerance checkpoints.

Chapter 6See details

Immune Tolerance and Autoimmunity

  • Lesson 1 • Central Tolerance Mechanisms

    Covers thymic negative selection and bone marrow B cell deletion as primary checkpoints. Explains AIRE-driven tissue antigen expression in the thymus.

  • Lesson 2 • Organ-Specific vs. Systemic Autoimmunity

    Contrasts localised tissue destruction with systemic immune complex deposition. Uses representative disease models to illustrate each pattern.

  • Lesson 3 • Mechanisms of Autoimmune Disease

    Explains molecular mimicry, bystander activation, and epitope spreading as autoimmune triggers. Links genetic and environmental risk factors to disease onset.

  • Lesson 4 • Therapeutic Approaches to Autoimmunity

    Surveys immunosuppressive drugs, biologics targeting cytokines, and antigen-specific tolerance strategies. Connects mechanism of action to clinical rationale.

  • Lesson 5 • Peripheral Tolerance Mechanisms

    Describes anergy, regulatory T cell suppression, and immune privilege as secondary safeguards. Connects peripheral checkpoints to prevention of tissue-specific autoimmunity.

Chapter 7See details

Hypersensitivity and Allergic Disease

  • Lesson 1 • Delayed-Type and Contact Hypersensitivity

    Describes Th1 and CD8 T cell-driven tissue damage occurring 24-72 hours after antigen contact. Covers tuberculin reaction and contact dermatitis as clinical models.

  • Lesson 2 • IgE-Mediated Allergy Mechanisms

    Details allergen sensitisation, IgE production, mast cell priming, and degranulation on re-exposure. Explains the molecular basis of anaphylaxis and atopy.

  • Lesson 3 • Gell-Coombs Classification Framework

    Introduces the four hypersensitivity types by effector mechanism and timeline. Provides the organisational framework for the rest of the chapter.

  • Lesson 4 • Immune Complex Disease

    Explains how antigen-antibody complexes deposit in tissues and activate complement and neutrophils. Connects complex size, charge, and clearance to disease severity.

  • Lesson 5 • Antibody-Mediated Tissue Damage

    Covers complement activation, ADCC, and receptor blocking by pathogenic antibodies in Type II reactions. Links mechanisms to transfusion reactions and autoimmune cytopenias.

Chapter 8See details

Vaccines, Immunotherapy, and Applied Immunology

  • Lesson 1 • Immunodeficiency and Immune Reconstitution

    Distinguishes primary genetic immunodeficiencies from secondary acquired states and their clinical consequences. Covers replacement therapies and stem cell transplantation as corrective strategies.

  • Lesson 2 • Transplantation Immunology

    Covers allorecognition, rejection types, and immunosuppressive regimens used to prevent graft loss. Explains tolerance induction strategies in transplantation.

  • Lesson 3 • Cancer Immunology and Immunotherapy

    Describes tumour immune evasion strategies and how checkpoint inhibitors, CAR-T cells, and cancer vaccines restore anti-tumour immunity.

  • Lesson 4 • Herd Immunity and Population Protection

    Explains threshold coverage, R0, and how vaccination reduces transmission at the population level. Addresses vaccine hesitancy and equity as public health challenges.

  • Lesson 5 • Principles of Vaccine Design

    Connects immunological memory, adjuvant action, and antigen formulation to vaccine efficacy. Covers live-attenuated, inactivated, subunit, and nucleic acid vaccine platforms.

Certification

Your valid completion certificate

This course is for you:

  • Nursing students: wanting a deeper grasp of immune-related clinical conditions.

  • Science journalists: covering infectious disease, vaccines, or immunotherapy topics.

  • Pre-med undergraduates: building foundational knowledge before medical school coursework.

  • Fitness and wellness coaches: seeking science-backed understanding of immune health.

  • Biotech professionals: transitioning into immunology-adjacent research or product roles.

  • Curious adults: following news about pandemics, allergies, or autoimmune conditions.

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