• Nem Talált Eredményt

Signal transduction TÁMOP-4.1.2-08/1/A-2009-0011 1

N/A
N/A
Protected

Academic year: 2022

Ossza meg "Signal transduction TÁMOP-4.1.2-08/1/A-2009-0011 1"

Copied!
9
0
0

Teljes szövegt

(1)

1

Number of lecture

Title of lecture Number

of slide

Title of slide

1. Introduction 1. 1. Cover page

2. Introduction 1. (Title)

3. History

4. Signal transduction

5. Cell communication pathways 1.

6. Cell communication pathways 2.

7. Mechanisms of cytokine action 8. Extracellular signaling molecules 9. Three stages of cell signaling 10. Characteristics of the response 11. Main types of receptors 12. Types of cell surface receptors 13. Ligand-gated ion channels

14. 7- transmembrane spanning receptors 15. Mechanism of neurotransmission

16. Synapse between two neurons – neurotransmission 17. Two types of enzyme receptors

2. Introduction 2. 1. Cover page

2. Introduction 2. (Title) 3. Intracellular receptor signaling

4. Ligands binding to intracellular receptors 5. Steroid receptor superfamily

6. Glucocorticoid receptor phosphorylation 7. Genomic and non-genomic glucocorticoid effects

8. Hormones are classified into three categories based on their structure

9. Primary hormone-secreting glands 10. Other hormone-secreting glands 11. Other chemical messengers 12. Basic characteristics of cytokines 13. Environmental stimuli as signal initiators 14. Toll-like receptors (TLRs)

15. TLR types 3. Extracellular receptors – ion-

channels

1. Cover page

2. Extracellular receptors – ion channels (Title)

3. Scheme of the signal transduction of cell surface receptors 4. Receptor families

5. Extracellular receptor types

6. Receptors

7. More receptors using the same second messenger system 8. Receptor - ligand interaction

9. Functional groups of ligands

10. Ionotropic receptors (ligand gated ion channels) 11. Ion channel receptors

12. Nicotinic acetylcholine receptor 1.

13. Nicotinic acetylcholine receptor 2.

14. The axon terminal 15. “Electric” organs in animals

16. Blocking the neuromuscular transmission 4. Extracellular receptors - G-

protein coupled receptors

1. Cover page

2. Extracellular receptors - G-protein coupled receptors (Title) 3. The structure of 7-transmembrane-spanning (7-TM) receptors

(2)

2

4. 7-TM receptor family 1.

5. 7-TM receptor family 2.

6. 7-TM ligands 7. Inactive GPCR

8. Active GPCR

9. 7-TM receptors bind to G-proteins = G-protein-coupled receptors (GPCR) 10. cAMP-PKA pathway

11. G-proteins 1.

12. G-proteins 2.

13. G-protein signaling 14. GPCR regulation

15. Monomeric G-proteins (Ras family) 16. Ras regulation

17. Ras function – MAPK cascade 18. Ras-MAPK cascade

5. Enzyme-linked receptors 1. Cover page

2. Enzyme-linked receptors (Title) 3. Receptors with enzyme activity 4 Receptor classes 1.

5. Receptor classes 2.

6. Introduction

7. Receptor tyrosine kinase (RTK) families 8. Receptor tyrosine kinase (RTK) family 9. Main steps of RTK activation 10. Dimerization of GF receptors 11. Autophosphorylation of RTKs 12. Members of the initial signal complex 13. Members of the signaling complex 14. Ras-MAPK pathway

15. Parallel MAPK pathways 16. MAPK-activated kinases (MKs) 17. Turning-off the pathway

18. MAPK/ERK in growth and differentation

6. Second messengers 1. Cover page

2. Second messengers (Title) 3. Second messengers

4. General scheme of intracellular signaling 5. Discovery of second messengers - cAMP 6. Synthesis of cAMP

7. cAMP activates Protein kinase A 8. PKA targets

9. Phospholipase C 10. IP3 receptor pathway

11. Gases as second messengers: NO way!

12. NO synthesis 13. NO-cGMP pathway

14. cGMP

15. Protein kinase G 16. Functions of NO

7. The calcium signal 1. Cover page

2. The calcium signal (Title) 3. Physiological role of Ca2+ 1.

4. Physiological role of Ca2+ 2.

5. Cytoplasmic Ca2+ is kept low 6. Measuring intracellular Ca2+

7. Ca2+-channels in the ER

(3)

3

8. Ca2+-influx through plasma membrane channels

9. Intra/extracellular compartments of Ca2+-signaling, Ca2+-channels 10. Store-operated Ca2+-entry (SOCE)

11. IP3

12. Several pathways use the Ca2+ signal 13. Ca2+-regulated target proteins 1.

14. Ca2+-regulated target proteins 2.

15. Effector mechanisms of Ca2+-signaling 16. Calcium in phototransduction

8. Transcription factors 1. Cover page

2. Transcription factors (Title)

3. Structural groups of transcription factors 1.

4. Structural groups of transcription factors 2.

5. Functional domains of transcription factors 6. Nuclear receptor superfamily

7. Mechanism of steroid receptor action 8. Functional groups of TFs

9. Signal-dependent TFs

10. TFs in T cell activation induce cytokine production 11. Structure of STATs

12. Regulation of transcription 13. Mechanism of gene regulation

14. Growth factor induced TFs and their biological effect 15. Some important transcription factors

16. Transcription factors and diseases 9. B cell receptor (BcR) signaling 1. Cover page

2. B cell receptor (BcR) signaling (Title) 3. B cell development

4 Early lymphopoiesis

5. The stage specific crucial events involved in B lymphoid commitment

6. Genetic control of lineage commitment in early lymphopoiesis 7. Early B-cell development in the bone marrow

8. The Ig gene rearrangement

9. Expression pattern of transcription factors involved in B cell commitment and differentiation

10. Immunreceptor Tyrosin-based Activation Motif 11. Acute antigen signalling

12. Co-stimulatory pathways of BcR signaling 13. Long term BcR stimulation

14. The positive (CR2) and negative (FcγRIIb) B cell regulation model 15. Role for lipid rafts in B-cell activation

16. Lipid rafts

17. Overview of BcR signaling 10. T cell receptor (TcR) signaling 1. Cover page

2. T cell receptor (TcR) signaling (Title)

3. Role of transcription factors in thymocyte development 4. Th - Tc cell decision

5. Molecules of the „immunological synapse”

6. Costimulatory pathways regulate the TcR signal 7. Binding of ZAP-70 kinase

(Zeta-chain Associated Protein kinase 70 kDa) 8. Phosphorylation sites of the ZAP-70 kinase 9. The role of ZAP-70

10. T cell activation pathways

11. 2 signals are required for T-cell activation 12. Initial steps of T cell activation

(4)

4

13. Th differentiation

14. Anergy

15. Similarities in TcR and FceR signaling 16. Characteristics of Src and Syk family kinases 17. Non-receptor tyrosin kinases

18. Characteristics of Src family kinases 19. Overview of TcR/CD3 signaling pathway

11. Fc receptor signaling 1. Cover page

2. Fc receptor signaling (Title) 3. Mast cell activation mechanisms

4. Selected mediators produced by mast cells.

5. Other mast cell activators 6 IgE bound FcεRI 7. IgE bound FcεRII

8 IL-4 and IL-13 signal induce IgE switch 9. The IgE promoter region

10. Signal transduction pathways 11. FcεRI mediated signaling

12. Similarities in TcR and FcεR signaling 13. Biological effects of FcεR signaling 14. Mast cell mediators

12. Fcγ receptor signaling 1. Cover page

2. Fcγ receptor signaling (Title) 3. Types of human Fcγ receptors 4. Mouse Fcγ receptors 5. Role of ITAMs

6. Activatory Fcγ receptor signaling 7. Steps of Fcγ signaling

8. Inhibitory Fcγ receptor signaling 1.

9. Inhibitory Fcγ receptor signaling 2.

10. ITIM

11. Overview of Fcγ receptor signaling 12. Triggering agents and regulatory cytokines 13. Role of FcRs: enhanced phagocytosis 1.

14. Role of FcRs: enhanced phagocytosis 2.

15. Role of FcRs: enhanced phagocytosis 3.

16. ADCC

13. Tyrosine kinase-linked receptors I.: Cytokine/chemokine signaling

1. Cover page

2. Tyrosine kinase-linked receptors I.: Cytokine/chemokine signaling (Title)

3. Cytokine groups 4. Cytokine receptors

5. Characteristics of multichain cytokine receptors 6. Cytokine signaling – overview

7. The structure of JAK and STAT proteins

8. JAK 1.

9. JAK 2.

10. STAT 1.

11. Human STATs

12. STAT 2.

13. Regulation of JAK/STAT signaling 14. JAK inhibitors

15. Chemokines

16. Chemokine signal through receptors coupled with G-proteins 17. Chemokine signaling pathways

14. Tyrosine kinase-linked receptors 1. Cover page

(5)

5

II.: Growth factors

2. Tyrosine kinase-linked receptors II.: Growth factors (Title) 3. Growth factors (GFs)

4. Growth factors (GFs) – History 5. Growth factors

6. Receptors with TK activity

7. “Complete” and “incomplete” receptor tyrosine kinase 8. RTK families

9. Kinase-phosphatase balance 10. Growth factor receptors 11. Receptor-like PTPs (21) 12. Nontransmembrane PTPs (17)

13. Growth factor receptors and tyrosine phosphorylation 14. Receptor tyrosine kinase (RTK) signaling

15. GF receptor signaling pathways 1.

16. GF receptor signaling pathways 2.

17. Overview of EGF signaling

18. General characteristics of GF signaling

19. Different GF receptors use the same signaling pathways 20. Natriuretic peptide signaling

15. Signaling in the innate immune system; PRR signaling

1. Cover page

2. Signaling in the innate immune system; PRR signaling (Title) 3. Pathogen associated molecular patterns (PAMPs)

4. Endocytic Pattern-Recognition Receptors (PRRs) 5. Signaling Pattern-Recognition Receptors 6. Signaling PRRs found in the membranes of the

endosomes/phagolysosomes 7. Toll-like receptors (TLRs)

8. Toll-like receptors-pattern recognition 9. The horseshoe structure of TLR3 10. TLR types

11. TLR signaling 1.

12. TLR signaling 2.

13. TLR related transcription factors 14. Toll-like receptor inhibitors 15. Inflammatory cytokines

16. Opsonins

17. Secreted PRRs 18. Complement receptors

19. Overview of complement receptor (CR) and Toll-like receptor signaling

16. G-protein-linked receptors 1. Cover page

2. G-protein-linked receptors (Title) 3. Nomenclature

4. 7-transmembrane (7-TM) spanning receptors

5 GPCR

6. Structure of 7-TM receptors

7. GPCR subtypes

8. Activation of G-protein-coupled receptors (GPCR) 9. G-proteins

10. G-protein heterotrimer

11. Catecholamine hormon synthesis 12. Epinephrine and analogues 13. cAMP-PKA pathway

14. Primary Action of Epinephrine in a Liver Cell 15. Glucagon signaling

(6)

6

16. Serotonin receptor 17. Types of serotonin receptor 18. Receptor desensitization

17. Signaling in tumor cells 1. Cover page

2. Signaling in tumor cells (Title)

3. Immune selection in the development of cancer: no two tumors are alike

4. Tumor and activated T cells

5. What happens when Fas-stimulated immune cells resist to die?

6. TGF-β signaling in tumor signaling and cancer progression 7. Fas signal

8. Growth factors (GFs)

9. Receptor tyrosine kinase (RTK) families 10. GF signaling pathways

11. GF receptors as therapeutic targets 12. HER gene family

13. HER2 genetics in cancer 14. Anti-EGFR resistance in NSCLC 15. Colorectal cancer and EGFR

16. VEGFR2 receptor signaling in endothelial cells 17. Kinase inhibitory profiles of anti-angiogenic agents 18. Overview of EGF signaling

18.&19. Apoptosis pathways 1. Cover page

2. Apoptosis pathways (Title) 3. „The process of natural death”

4. Role of apoptosis

5. When would it be advantageous to the organism?

6. The actual steps in cell death require 7. Apoptosis signals

8 Mechanism of apoptosis: caspases 9. Initiator caspases

10. The caspase cascade can be activated by 11. Apoptosis pathways

12. Intrinsic apoptotic pathway 13. Mitochondrial apoptosis pathway 14. Permeability transition pore

15. Apoptosome

16. Bcl-family

17. What causes all these changes in the mitochondria?

18. Apoptosis pathways in activated T cells 19. Extrinsic apoptotic pathway: death receptors 20. Role of death receptors: Fas

21. TNF receptor mediated apoptosis 1.

22. TNF receptor mediated apoptosis 2.

23. TNFR signaling 24. Controlling apoptosis

25. BID a bridge between the extarcellular and mitochondrial apoptosis pathways

26. Effector molecules

27. Membrane lipid transport with scramblases 28. PS labelling with Annexin V

29. Efferocytosis

30. Cell surface events also can inhibit apoptosis

20. Ion channel receptors 1. Cover page

2. Ion channel receptors (Title) 3. Ion channel receptors

4. Cys-loop ion-channel receptors

(7)

7

5. Vertebrate anionic Cys-loop receptors 6. Vertebrate cationic Cys-loop receptors 7. Ionotropic glutamate receptors 8. Nicotinic Ach receptor 9. Common neurotransmitters 10. Nicotinic acetylcholine receptor 11. Neurotransmission

12. Neurotransmitters 13. Acetylcholine receptors 14. Acetylcholinesterase (AchE) 21.&22. Intracellular/nuclear receptor

signaling

1. Cover page

2. Intracellular/nuclear receptor signaling (Title)

3. History

4 Mechanism of action 5. Transcription factors 6. Studying transcription factors 7. Luciferase reporter assay

8. Ligands

9. Species distribution of nuclear receptors (NRs) 10. Intracellular receptors

11. Nuclear receptor superfamily

12. Structural organization of nuclear receptors 13. Mechanism of steroid receptor action 14. Time scale of glucocorticiod (GC) action 15. Types of NRs

16. Class I receptor action 17. Type I NRs

18. Cytoplasmic receptor complex 19. Class II receptor action 20. Type II NRs

21. Heterodimer of the nuclear receptors 22. DNA binding

23. Genomic action of nuclear receptors 24. Structure of DBD

25. Gene regulation

26. Transrepression and selectivity of ligands 27. Regulation of nuclear receptors 1.

28. Regulation of nuclear receptors 2.

29. Therapeutic implications – hormone analogues 23. Non-genomic steroid hormone

signaling pathways

1. Cover page

2. Non-genomic steroid hormone signaling pathways (Title) 3. Glucocorticoid action

4. Basics

5. GR signaling pathways 1.

6. GR signaling pathways 2.

7. Genomic steroid actions

8. Genomic and non-genomic GC effects

9. Evidences

10. Direct membrane effects

11. Membrane GR

12. Evidences for mitochondrial GR 13. Mitochondrial GR actions

14. Ligand induced mitochondrial GR translocation in DP thymocytes 15. Mitochondrial GR translocation

16. Summary of genomic and non-genomic glucocorticoid effects

(8)

8

24. Complement- and Toll-like receptors

1. Cover page

2. Complement receptors (Title) 3. Basic functions of the complement

4. Opsonins

5. Secreted pattern recognition receptors (PRRs) 6. Role of complement receptors

7. Complement receptors 1.

8. Complement receptors 2.

9. CR1

10. Role of CR1

11. CR2

12. C5aR

13. Overview of complement receptor (CR) and Toll-like receptor signaling

14. Toll-like receptors - pattern recognition 15. Toll-like receptors (TLRs)

16. TLR types 25. Receptor interactions, signaling

cross-talk

1. Cover page

2. Receptor interactions, signaling cross-talk (Title) 3. Introduction

4. Mechanism of interaction 5. Levels of signal “cross-talk”

6. More receptors using the same second messenger system 7. Growth factor receptor – integrin signaling interaction 8. EGF signaling

9. General characteristics of GF signaling 10. Ras – an important signaling switch 11. BcR and FcγRIIB cross-talk

12. Non-genomic GR signaling – interaction of GR with cytoplasmic TcR signaling proteins

13. TNFR – GR cross-talk 1.

14. TNFR – GR cross-talk 2.

15. Transcription factor cross-talk 16. Convergence of signaling pathways

26. Wnt signaling 1. Cover page

2. Wnt signaling (Title) 3. Discovery of Wnts 4. Wnt family proteins

5. Frizzled (Fz) family receptors 6. Canonical pathway

7. Non-canonical pathways 8. Wnt signaling pathways 9. Canonical Wnt pathway 10. β-catenin in cellular adhesion 11. Alzheimer’s disease 1.

12. Alzheimer’s disease 2.

13. Inhibition of Wnt and Tcf signaling in the canonical pathway 14. PKC isoforms in Wnt signaling

15. The classical view of three independent Wnt 16. Wnt signalling pathways in diseases 17. Wnt target genes

18. Rheumatoid arthritis

19. Molecular changes of Wnt4 signaling in the ageing thymus 27. Signaling in the nervous system 1. Cover page

2. Signaling in the nervous system (Title)

(9)

9

3. Synapse between two neurons - neurotransmission 4. Mechanism of neurotransmission

5. Receptors

6. Receptor - ligand interaction 7. Ion channel receptors

8. 7-transmembrane-spanning receptors (7-TM)

9. 7-TM ligands 10. Nicotinic Ach receptor 11. Neurotransmission 12. Acetylcholine 13. Adrenergic receptors

14. Blocking the neuromuscular transmission 28. Pharmacological influence of the

signaling

1. Cover page

2. Pharmacological influence of the signaling (Title) 3. Potential drug targets in signaling pathways 4. Various levels of intervention 1.

5. Various levels of intervention 2.

6. Blockade of surface receptors with monoclonal antibodies 7. Selected kinase inhibitors in clinical development 8. Calcineurin and rapamycin

9. Rapamycin

10. Toll-like receptor inhibitors 11. ERB signaling intervention 12. Proteosome inhibitors-Bortezomib 13. Apoptosis signaling intervention 14. HSP-90 inhibitors

Hivatkozások

KAPCSOLÓDÓ DOKUMENTUMOK

Ве1%уо%уазгаИ КНтка, Сазг1гоеп1его16ргаг Тапзгёк 8 Рёсзг Тикотапуе%уе1ет, АкаМпоз ОгуозЫкотапуг Каг, 1.зг.. Ве1%уд%уазгаЫ КНтка, КагсНо16%шг ёз

- no regulation by cellular cholesterol.. Biochemistry: Phospholipid and cholesterol metabolism Structure of scavenger receptors DEF.. TÁMOP – 4.1.2-08/2/A/KMR-2009-0006 67.

„Gyakorlatorientált képzési programok kidolgozása a turisztikai desztináció menedzsment és a kapcsolódó ismeretanyagok oktatására”..

„Gyakorlatorientált képzési programok kidolgozása a turisztikai desztináció menedzsment és a kapcsolódó ismeretanyagok oktatására”.

In general, we can influence signaling pathways at multiple levels (Figure II.8-1, Figure II.8-2 and Table II.8-1): (1) blockade of cell surface receptors; (2) inhibition of

– 7-transmembrane-spanning receptors (7TM) – Catalytic receptors: intrinsic enzyme activity. – Non-catalytic receptors: use cytoplasmic

• Tyrosine-Kinase Associated Receptors: receptors that associate with proteins that have tyrosine kinase activity (Cytokine Receptors).. Receptor

Vagy egyszerűen, túl- erőben voltak, többen lehettek, mint azok heten, és arra ment a harc, hogy kifosszák őket, ami nyilván sikerült is nekik, mert különben jóval több