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Ch. 1 | Neurosecretion of cytokines by N. paraventricularis and N. supraopticus of hypothalamus | 5 |
1.1 | The isolation of neurosecretory granules from bovine hypothalamus and neurohypophysis : bioassay methods of cytokine identification | 5 |
1.2 | Identification of interleukins 1[alpha] and 1[beta] in the lysates of neurosecretory granules of bovine neurohypophysis and hypothalamus | 6 |
1.3 | Identification of IL-2 in the neurosecretory granules of bovine neurohypophysis and hypothalamus | 8 |
1.4 | Identification of IL-6 in the neurosecretory granules of bovine neurohypophysis | 9 |
1.5 | Identification of tumor necrosis factor [alpha] (TNF-[alpha]) in the neurosecretory granules of bovine hypothalamus and neurohypophysis | 9 |
Ch. 2 | Discovery of new neurosecretory cytokines : prolinerich peptides produced by N. paraventricularis and N. supraopticus of hypothalamus | 13 |
2.1 | Isolation of proline-rich peptides from the neurosecretory granules of bovine neurohypophysis : primary structures, mass-spectral characteristics, and localization | 13 |
2.2 | Identification of PRP-1 in the brain by immunohistochemical methods using polyclonal antibodies | 23 |
2.3 | Determination of PRP-1 in the thymus, lymph nodes, and heart using monoclonal antibodies | 27 |
2.4 | Interactions of PRP-1 with coagulation cascade components : a potential role for PRP-1 in the metabolism of factor Xa/antithrombin III complex | 31 |
Ch. 3 | Interaction of PRP-1 with cytokines, hormones, and neurotransmitters | 33 |
3.1 | Effect of PRP-1 and lysates of neurosecretory granules on the expression of cytokines in macrophages and astrocytes | 33 |
3.2 | Effect of PRP-1 on the expression of interleukins and prolactin in different organs of mice during aluminum neurotoxicosis | 37 |
3.3 | PRP-1 increases the expression and release of human growth hormone in the culture of BALB/c mouse fibroblasts | 40 |
Ch. 4 | Antibacterial and antiviral activity of PRP-1 and some immunological mechanisms of its action | 45 |
4.1 | Effects of PRP-1 on the survival of mice infected with different strains of gram-negative and gram-positive bacteria at lethal doses | 46 |
4.2 | Effects of PRP-1 on the growth of bacteria in the internal organs of mice infected with S. typhimurium | 47 |
4.3 | Effects of PRP-1 on anti-microbial antibody production in mice infected with S. typhimurium and S. cholerae suis in lethal doses | 47 |
4.4 | Effect of PRP-1 on bactericidal activity of macrophages | 48 |
4.5 | Effect of PRP-1 on the secretion of interleukin-1 by peritoneal macrophages of mice infected with S. typhimurium in sublethal doses | 48 |
4.6 | Effect of PRP-1 on the antigen-presenting function of macrophages in mice infected with S. typhimurium | 49 |
4.7 | Effect of PRP-1 on the accumulation of macrophages in peritoneal cavities of mice infected with S. typhimurium | 50 |
4.8 | Effect of PRP-1 on the viability of macrophages in mice infected with S. typhimurium | 50 |
4.9 | Effect of PRP-1 on interferon-[gamma] (IFN-[gamma]) biosynthesis in human mononuclear cells and the replication of encephalomyocarditis virus in cell culture | 53 |
Ch. 5 | PRP regulation of T-lymphocyte development and myelopoiesis | 57 |
5.1 | Influence of PRP-1 on interleukin-2-dependent functions of human lymphocytes in culture and on the proliferation of jurkat cells | 57 |
5.2 | Regulation of thymocyte differentiation by PRP-1 in neonatal and fetal thymus | 60 |
5.3 | PRP-1 is a regulator of myelopoiesis | 66 |
Ch. 6 | Neuroprotective (antineurodegenerative) properties of PRP-1 | 75 |
6.1 | Protective effect of PRP-1 against snake venom-induced neuronal injury | 75 |
6.2 | Protective effect of PRP-1 against trauma-induced central and peripheral neuronal injury | 93 |
6.3 | Morphological and biochemical changes in brain microstructure in crush syndrome and effect of PRP-1 | 110 |
6.4 | PRP-1 protects brain neurons against aluminum (Al) neurotoxicosis (electron microscopy studies) | 118 |
Ch. 7 | Effect of PRP-1 on tumor cells | 129 |
7.1 | Effect of PRP-1 on the morphology and mitotic activity of neurinoma of rat noduli gasser (NRNG) cells in culture (electron microscopy studies) | 130 |
7.2 | Changes in the ultrastructure of L[subscript 929] tumor cells under the action of PRP-1 in vitro | 133 |
Ch. 8 | Basic biochemical mechanisms of PRP-1 action in different pathologies | 137 |
8.1 | Effect of PRP-1 on GFAP biosynthesis in astrocyte culture (immunocytochemical data) | 137 |
8.2 | Effect of PRP-1 on caspase activity of murine neuroblastoma N2A | 140 |
8.3 | Regulation of membrane phospholipid metabolism by PRP-1 in cardiopulmonary insufficiency | 144 |
8.4 | Influence of PRP-1 on consequences of ionizing irradiation in rats | 153 |
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Add Brain Neurosecretory Cytokines: Immune Response and Neuronal Survival, Brain Neurosecretory Cytokines: Immune Response and Neuronal Survival summarizes the biological and chemical data of signal molecules of the brain neuroendocrine immune system, mainly proline-rich peptides, which play an important role in the regul, Brain Neurosecretory Cytokines: Immune Response and Neuronal Survival to the inventory that you are selling on WonderClubX
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Add Brain Neurosecretory Cytokines: Immune Response and Neuronal Survival, Brain Neurosecretory Cytokines: Immune Response and Neuronal Survival summarizes the biological and chemical data of signal molecules of the brain neuroendocrine immune system, mainly proline-rich peptides, which play an important role in the regul, Brain Neurosecretory Cytokines: Immune Response and Neuronal Survival to your collection on WonderClub |