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- Fundamental aspects
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1. Inflammation and tissue homeostasis
- Prof. Herman Waldmann
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2. Introduction to the immune system
- Prof. Herman Waldmann
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3. Hematopoiesis: the making of an immune system
- Prof. Paul J. Fairchild
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4. Inflammation: purposes, mechanisms and development
- Prof. Pietro Ghezzi
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5. Phagocytosis
- Dr. Eileen Uribe-Querol
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6. Regulated cell death mechanisms and their crosstalk with the immune system 1
- Dr. Luis Alberto Baena-Lopez
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7. Regulated cell death mechanisms and their crosstalk with the immune system 2
- Dr. Luis Alberto Baena-Lopez
- Innate immunity
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11. Cells of the innate immune system
- Prof. Kevin Maloy
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12. Microbial recognition and the immune response
- Dr. Dana Philpott
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13. Toll-like receptor signalling during infection and inflammation
- Prof. Luke O'Neill
- Intercellular mediators
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14. Chemokines
- Dr. James E. Pease
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15. Cytokines
- Prof. Iain McInnes
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16. IL-1 family cytokines as the canonical DAMPs of the immune system
- Prof. Seamus Martin
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17. Glycans at the frontiers of inflammation, autoimmunity and cancer
- Prof. Salomé S. Pinho
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18. Glycoimmunology
- Prof. Paula Videira
- Adaptive immunity B cells
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21. Antigen recognition in the immune system
- Prof. Herman Waldmann
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22. B cell biology
- Prof. Richard Cornall
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23. Antibody structure and function: antibody structure
- Dr. Mike Clark
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24. Antibody structure and function: antibody function
- Dr. Mike Clark
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25. Antibody genes and diversity
- Dr. Mike Clark
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26. In vivo antibody discovery and hybridoma technology
- Prof. Dr. Katja Hanack
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27. Antibody engineering: beginnings to bispecifics and beyond
- Dr. Ian Wilkinson
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29. The immunobiology of Fc receptors
- Prof. Mark Cragg
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30. Immunoreceptors
- Prof. Anton van der Merwe
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31. Affinity, avidity and kinetics in immune recognition
- Prof. Anton van der Merwe
- Adaptive immunity T cells
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32. The thymus and T cell development: a primer
- Prof. Georg Holländer
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33. Lineage decisions in the thymus: T cell lineage commitment
- Prof. Bruno Silva-Santos
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34. Lineage decisions in the thymus: αβ and γδ T cell lineages
- Prof. Bruno Silva-Santos
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35. CD4 T cell subsets
- Dr. Brigitta Stockinger
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36. Cytotoxic T lymphocytes
- Prof. Gillian M. Griffiths
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37. Gamma delta T-cells
- Prof. Bruno Silva-Santos
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38. Tfh and Tfr cells
- Prof. Luis Graca
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39. Tissue resident memory T cells (TRM)
- Dr. Marc Veldhoen
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40. Mathematical modeling in immunology
- Prof. Ruy M. Ribeiro
- The importance of the MHC in immunity
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41. The MHC and MHC molecules 1
- Prof. Jim Kaufman
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42. The MHC and MHC molecules 2
- Prof. Jim Kaufman
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43. Natural killer cells
- Dr. Philippa Kennedy
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44. Human NK cells
- Prof. Lorenzo Moretta
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46. NK cells in viral immunity
- Prof. Lewis Lanier
- Lymphocyte activation
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47. Signal transduction by leukocyte receptors
- Dr. Omer Dushek
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48. Immunological memory 1
- Prof. David Gray
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49. Immunological memory 2
- Prof. David Gray
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50. Studying immune responses “one cell at a time”
- Dr. Mir-Farzin Mashreghi
- Major cellular partners in immunity
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51. The mononuclear phagocyte system - tissue resident macrophages: distribution and functions
- Prof. Emeritus Siamon Gordon
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52. The mononuclear phagocyte system: tissue resident macrophages - activation and regulation
- Prof. Emeritus Siamon Gordon
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53. Dendritic cells: professional antigen presenting cells
- Prof. Paul J. Fairchild
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54. Mucosal immunology
- Prof. Daniel Mucida
- Immunological tolerance and regulation
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55. Self-tolerance
- Prof. Herman Waldmann
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56. Tolerance and autoimmunity
- Prof. Emerita Anne Cooke
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57. The balance between intestinal immune homeostasis and inflammation
- Prof. Dr. Janneke Samsom
- Translational immunology - immune deficiency
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58. Primary immunodeficiency disorders
- Dr. Smita Y. Patel
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59. Changes in innate and adaptive immunity during human ageing 1
- Dr. Roel De Maeyer
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60. Changes in innate and adaptive immunity during human ageing 2
- Dr. Roel De Maeyer
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61. The aging immune system
- Prof. Ana Caetano
- Translational immunology - protection against pathogenic microbes
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62. Immune responses to viruses
- Prof. Paul Klenerman
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63. HIV and the immune system
- Prof. Quentin Sattentau
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64. COVID-19: the anti-viral immune response
- Prof. Danny Altmann
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65. Bacterial immune evasion
- Prof. Christoph Tang
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66. The immunology underlying tuberculosis
- Prof. Thomas R. Hawn
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67. Innate immunity to fungi
- Prof. Gordon D. Brown
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68. Parasite immunity: introduction and Plasmodium
- Dr. Catarina Gadelha
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69. Parasite immunity: Leishmania and Schistosoma
- Dr. Catarina Gadelha
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70. Vaccination
- Dr. Anita Milicic
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71. The history of vaccines 1
- Prof. Emeritus Anthony R. Rees
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72. The history of vaccines 2
- Prof. Emeritus Anthony R. Rees
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73. The history of vaccines 3
- Prof. Emeritus Anthony R. Rees
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74. The science of vaccine adjuvants
- Dr. Derek O'Hagan
- Translational immunology - hypersensitivity, autoimmune disease and their management
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75. Hypersensitivity diseases: type 1 hypersensitivity
- Prof. Herman Waldmann
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76. Innate lymphoid cells in allergy
- Prof. Emeritus Shigeo Koyasu
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77. Hypersensitivity diseases: type II-IV hypersensitivity
- Prof. Sara Marshall
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78. Immune memory underlying lifelong peanut allergy
- Dr. Kelly Bruton
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79. Memory B cells in allergy: B cell activation and response
- Dr. Kelly Bruton
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80. Memory B cells in allergy: ontogeny, phenotype and plasticity
- Dr. Kelly Bruton
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81. B cells at the crossroads of autoimmune diseases
- Dr. Xiang Lin
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82. Interleukin-17: from clone to clinic
- Prof. Leonie Taams
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83. Autoimmunity and type 1 diabetes
- Prof. Emerita Anne Cooke
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84. What is new in type 1 diabetes?
- Prof. Åke Lernmark
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85. Antibodies to control or prevent type 1 diabetes
- Dr. Robert Hilbrands
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86. Monoclonal antibodies in haemato-oncology
- Prof. Mark Cragg
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87. Therapeutic antibodies
- Dr. Geoffrey Hale
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88. Endothelial cells: regulators of autoimmune-neuroinflammation
- Dr. Laure Garnier
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89. Neuroimmunometabolism
- Prof. Ana Domingos
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90. The immunology of multiple sclerosis
- Dr. Joanne Jones
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91. Immunology of the peripheral nervous system: the inflammatory neuropathies
- Dr. Simon Rinaldi
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92. Ocular immunology: an overview of immune mechanisms operating in the eye
- Dr. Eleftherios Agorogiannis
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93. Understanding myasthenia gravis and advances in its management
- Prof. Henry J. Kaminski
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94. The immunology underlying rheumatic diseases
- Dr. Hussein Al-Mossawi
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96. Complement and lupus
- Prof. Marina Botto
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97. Immune mechanisms in liver diseases
- Prof. Paul Klenerman
- Translational immunology - transplantation immunology
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98. Principles of transplantation: overview of the immune response
- Prof. Emerita Kathryn Wood
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99. Factors influencing outcomes in clinical transplantation 1
- Prof. Emerita Kathryn Wood
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100. Factors influencing outcomes in clinical transplantation 2
- Prof. Emerita Kathryn Wood
- Translational immunology - cancer immunology
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101. Cancer immunology
- Prof. Tim Elliott
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102. Cancer immunotherapy
- Prof. Tim Elliott
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103. Myeloid-derived suppressor cells in cancer
- Prof. Dmitry Gabrilovich
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104. IL-2 in the immunotherapy of autoimmunity and cancer
- Prof. Thomas Malek
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105. Latest advances in the development of CAR & TCR T-cell treatments for solid tumours
- Dr. Else Marit Inderberg
Printable Handouts
Navigable Slide Index
- Introduction
- Talk outline (1)
- Host defence - an evolutionary imperative
- How does the immune system interact across cells, tissues and organisms?
- Cytokines - one solution towards dynamic immunity!
- Principles of cytokine biology (1)
- Principles of cytokine biology (2)
- Principles of cytokine biology (3)
- Principles of cytokine biology - nomenclature
- Principles of cytokine biology - receptor families
- Principles of cytokine biology - diverse functions via intracellular signalling: JAK family
- Essentials of cytokine biology - regulation of T-cell subsets defined by cytokine production
- Cytokines mediate the equilibrium of the immunity system
- Principles of cytokine biology - function in complex networks
- Talk outline (2)
- Cytokine targeting starts with rheumatoid arthritis…
- Towards pathogenesis lead interventions in immune diseases - RA as an exemplar?
- A pre-revolutionary history of arthritis management...
- TNF: pathogenesis driven intervention in the clinic
- Developing TNF inhibitors in chronic inflammatory diseases
- IL-6: broad homeostatic biological properties
- IL-6: biology of relevance to RA - a summary
- Cytokine targeting extended inside the cell via kinase inhibitors…
- Cytokine inhibitors turned out to be useful across diseases beyond the joint….
- A mention for inteleukin-17
- Lessons learned from the IL-23-IL-17b axis in immune mediated diseases?
- Benefit-risk profile of cytokine blockade?
- Pathogenetic lessons from cytokine targeting medicines?
- Pathogenetic lessons - can we extend that into pre-IMIDs?
- Cytokines and IMIDs - many more cytokines activities now described in
- Evolving models for cytokine hierarchies in IMIDs?
- Do cytokines work alone or in sophisticated networks? (1)
- Do cytokines work alone or in sophisticated networks? (2)
- Discrete cytokine patterns associate with disease state?
- Cytokine inhibitors allowing new definition of immune diseases
- Final thoughts
Topics Covered
- Principles of cytokine biology
- Cytokines family members and their receptors
- Diverse cascades and functions of cytokines
- Cytokines mediate the equilibrium of the immunity system
- The pathogenesis of cytokines and disease
- The therapeutics of cytokines and disease
Links
Series:
Categories:
Therapeutic Areas:
Talk Citation
McInnes, I. (2020, October 29). Cytokines [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved February 5, 2025, from https://doi.org/10.69645/IVAM9825.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Iain McInnes has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
A selection of talks on Immunology
Transcript
Please wait while the transcript is being prepared...
0:00
Hello, my name is Iain McInnes,
I'm the Muirhead Professor of Medicine and the versus
arthritis Professor of Rheumatology in the University of Glasgow in Scotland.
I'm going to tell you today about the principles of cytokine biology.
I'm going to think out loud with you about the critical role that cytokines
play in this extraordinary agile and dynamic immune response.
I'm then going to tell you a little bit about their basic biology, how they're regulated,
and finally give you some examples of how they can
bring complex immune phenotypic regulation to bear.
0:34
The lecture I'm about to give you is going to fall into two parts.
They're mutually dependent, but if you feel you would
prefer take them as individual sub-segments,
there's going to be no problem with that.
In the first part of the lecture,
I'm going to tell you about the principles of cytokine biology.
I'm going to tell you what they are,
I'm going to tell you how they function in the immune system.
Then with that basis,
I'm going to tell you just a little bit about a few select cytokine moieties and
their potential role in the pathogenesis of
diseases that are common in clinical practice.
More importantly, how those cytokines and their biology have been used to derive
new therapeutics that are transforming the lives of
many people who have the so-called IMID group of disorders,
the immune-mediated inflammatory disease group.
1:31
Let us turn first of all to the reason for having an immune response at all.
It's interesting when you look back through evolution,
that even very primitive organisms,
even if you thinking about viruses,
have devoted some of
their invaluable genetic sequence and energy to the function of defense.
Even viruses actually generated genes that were involved
in the defense of the virus and the cell in which a virus might exist.
Those genes actually have come through evolution into higher organisms,
all the way through into sharks, into reptiles,
into mammals, and even into the highest evolved mammal that is yet known,
that is the Scottish football supporter.
This is an extraordinary mammal that is immune to all manner of
disappointments and terrible trials and tribulations on the sporting field,
and even Scottish football supporters have an effective immune response.
But if you just cast your eye through this figure,
you will see that there has been
a progressive acquisition of increasing modalities of immune defense.
Initially, the immune response comprised mainly proteins,
peptides, the complement system, for example.
Then came the idea that cells could contribute.
Finally, that cells could take on
some specific functions which working as a corporate whole,
could lead to an effective immune defense.
A remarkable immune defense that in higher mammals allows
not only the immediate response to a challenge,
to an injury or to an infection,
but also memory of that challenge so that when
subsequently the human being or higher mammals sees that organism,
it is able to mount an immediate and effective defense.
That is the fundamental division of the immune response into
innate and adaptive immunity that
you'll be learning about in other lectures in this series.
A good way to think about that is,
of the innate immune system being immediate,
highly effective, but amnesic.
It does the same thing all over again the next time it's exposed to that same challenge.
That's actually really quite inefficient.
Mounting an immune response takes a lot of metabolic energy,
it takes a lot of cellular material that takes
a lot of building blocks to make new cells to respond.
The acquisition of memory in higher mammals was
the ability to remember what the challenge originally was,
the context of that challenge in any given tissue and
that rapid onset of a much more efficient adaptive response.
What I'm going to tell you about is that,
within this complex network,
it is the cytokines that have a critical role in coordinating the immune response.