IMMUNOREGULATOR

Abstract: The invention relates to the field of immunology, more specifically to the field of immune-mediated disorders such as allergies, auto-immune disease, transplantation-related disease or inflammatory disease. The invention provides among others an immunoregulator (NMPF), use of an NMPF in preparing a pharmaceutical composition for treating an immune-mediated disorder, a pharmaceutical composition and a method for treating an immune-mediated disorder.

Description: Title: Immurioregulator . FIELD OF THE INVENTION The invention relates to the field of immunology, more specifically to the field of immune-mediated disorders such as allergies, auto-immune disease, transplantation-related disease or inflammatory disease. BACKGROUND OF THE INVENTION The immune system produces cytokines and other humoral factors to protect the host when threatened by inflammatory agents, microbial invasion, or injury. In most cases this complex defence network successfully restores normal homeostasis, but at other times the immunological mediators may actually prove deleterious to the host . Some examples of immune disease and immune system-mediated injury have been extensively investigated including anaphylactic shock, autoimmune disease, and immune complex disorders. Recent advances in humoral and cellular immunology, molecular biology and pathology have influenced current thinking about auto-immunity being a component of immune- mediated disease. These advances have increased our understanding of the basic aspects of antibody, B-cell, and T-cell diversity, the generation of innate (effected by monocytes, macrophages, granulocytes, natural killer cells, mast cells, γδ T cells, complement, acute phase proteins, and such) and adaptive (T and B cells and antibodies) or cellular and humoral immune responses and their interdependence, the mechanisms of (self) -tolerance induction and the means by which immunological reactivity develops against auto-antigenic constituents. Since 1900, the central dogma of immunology has been that the immune system does not normally react to self. However, it as recently become apparent that auto-immune responses are not as rare as once thought and that not all auto-immune responses are harmful; some responses play a distinct role in mediating the immune response in general. For example, certain forms of auto-immune response such as recognition of cell surface antigens encoded by the major histocompatibility complex (MHC) and of anti-idiotypic responses against self idiotypes are important, indeed essential, for the diversification and normal functioning of the intact immune system. Apparently, an intricate system of checks and balances is maintained between various subsets of cells (i.e. T-cells) of the immune system, thereby providing the individual with an immune system capable of coping with foreign invaders. In that sense, auto-immunity plays a regulating role in the immune system. However, it is now also recognised that an abnormal auto-immune response is sometimes a primary cause and at other times a secondary contributor to many human and animal diseases. Types of auto-immune disease frequently overlap, and more than one auto-immune disorder tends to occur in the same individual, especially in those with auto-immune endocrinopathies . Auto-immune syndromes may be mediated with lymphoid hyperplasia, malignant lymphocytic or plasma cell proliferation and immunodeficiency disorders such as hypogammaglobulinaemie, selective Ig deficiencies and complement component deficiencies. Auto-immune diseases, such as systemic lupus erythematosus, diabetes, rheumatoid arthritis, post- partum thyroid dysfunction, auto-immune thromocytopenia, to name a few, are characterised by auto-immune responses, for example directed against widely distributed self-antigenic determinants, or directed against organ- or tissue specific antigens. Such disease may follow abnormal immune responses against only one antigenic target, or against many self antigens. In many instances, it is not clear whether auto-immune responses are directed against unmodified self-antigens or self- antigens that have been modified (or resemble) any of numerous agents such as viruses, bacterial antigens and haptenic groups . There is as yet no established unifying concept to explain the origin and pathogenesis of the various autoimmune disorders. Studies in experimental animals support the notion that auto-immune diseases may result from a wide spectrum of genetic and immunological abnormalities which differ from one individual to another and may express themselves early or late in life depending on the presence or absence of many superimposed exogenous (viruses, bacteria) or endogenous (hormones, cytokines, abnormal genes) accelerating factors. It is evident that similar checks and balances that keep primary auto-immune disease at bay are also compromised in immune mediated disorders, such as allergy (asthma) , acute inflammatory disease such as sepsis or septic shock, chronic inflammatory disease (i.e rheumatic disease, Sjδgrens syndrome, multiple sclerosis) , transplantation-related immune responses (graft-versus- host-disease, post-transfusion thrombocytopenia) , and many others wherein the responsible antigens (at least initially) may not be self-antigens but wherein the immune response to said antigen is in principle not wanted and detrimental to the individual . Sepsis is a syndrome in which immune mediators, induced by for example microbial invasion, injury or through other factors, induce an acute state of inflammation which leads to abnormal homeostasis, organ damage and eventually to lethal shock. Sepsis refers to a systemic response to serious infection. Patients with sepsis usually manifest fever, tachycardia, tachypnea, leukocytosis, and a localised site of infection. Microbiologic cultures from blood or the infection site are frequently, though not invariably, positive. When this syndrome, results in hypotension or multiple organ system failure (MOSF) , the condition is called sepsis or septic shock. Initially, micro-organisms proliferate at a nidus of infection. The organisms may invade the bloodstream, resulting in positive blood cultures, or might grow locally and release a variety of substances into the bloodstream. Such substances, when of pathogenic nature are grouped into two basic categories : endotoxins and exotoxins. Endotoxins typically consist of structural components of the micro-organisms, such as teichoic acid antigens from staphylococci or endotoxins from gram- negative organisms μlike LPS) . Exotoxins (e.g., toxic shock syndrome toxin-1, or staphlococcal enterotoxin A, B or C) are synthesised and directly released by the microorganisms . As suggested by their name, both of these types of bacterial toxins have pathogenic effects, stimulating the release of a large number of endogenous host-derived immunological mediators from plasma protein precursors or cells (monocytes/macrophages, endothelial cells, neutrophils, T cells, and others) . It is in fact generally these immunological mediators which cause the tissue and organ damage associated with sepsis or septic shock. Some of these effects stem from direct mediator-induced injury to organs. However, a portion of shock-associated-organ dysfunction is probably due to mediator-induced abnormalities in vasculature, resulting in abnormalities of systemic and regional blood flow, causing refractory hypotension or MOSF (Bennett et al . ) . The non-obese diabetic (NOD) mouse is a model for auto-immune disease, in this case insulin-dependent diabetes mellitus (IDDM) which main clinical feature is elevated blood glucose levels (hyperglycemia) . Said elevated blood glucose level is caused by auto-immune destruction of insulin-producing β cells in the islets of Langerhans of the pancreas (Bach et al . 1991, Atkinson et al . 1994) . This is accompanied by a massive cellular infiltration surrounding and penetrating the islets (insulitis) composed of a heterogeneous mixture of CD4+ and CD8+ T lymphocytes, B lymphocytes, macrophages and dendritic cells (O'Reilly et al . 1991). The NOD mouse represents a model in which auto- immunity against beta-cells is the primary event in the development of IDDM. Diabetogenesis is mediated through a multifactorial interaction between a unique MHC class II gene and multiple, unlinked, genetic loci, as in the human disease. Moreover, the NOD mouse demonstrates beautifully the critical interaction between heredity and environment, and between primary and secondary auto- immunity, its clinical manifestation is for example depending on various external conditions, most importantly of the micro-organism load of the environment in which the NOD mouse is housed. As for auto-immunity demonstrable in NOD mice, most antigen-specific antibodies and T-cell responses are measured after these antigens were detected as self- antigens in diabetic patients. Understanding the role these auto-antigens play in NOD diabetes may further allow to distinguish between pathogenic auto-antigens and auto-immunity that is an epiphenomenon . In general, T lymphocytes play a pivotal role in initiating the immune mediated disease process (Sempe et al. 1991, Miyazaki et al . 1985, Harada et al . 1986, Makino et al . 1986) . CD4+ T-cells can be separated into at least two major subsets Thl and Th2. Activated Thl cells secrete IFN-γ and TNF-α, while Th2 cells produce IL- 4, IL-5 and IL-10. Thl cells are critically involved in the generation of effective cellular immunity, whereas Th2 cells are instrumental in the generation of humoral and mucosal immunity and allergy, including the activation of eosinophils and mast cells and the production of IgE (Abbas et al . 1996) . A number of studies have now correlated diabetes in mice and human with Thl phenotype development (Liblau et al . 1995, Katz et al . 1995) . On the other hand, Th2 T cells are shown to be relatively innocuous. Some have even speculated that Th2 T cells in fact, may be protective. Katz et al . have shown that the ability of CD4+ T cells to transfer diabetes to naive recipients resided not with the antigen specificity recognised by the TCR per se, but with the phenotypic nature of the T cell response. Strongly polarised Thl T cells transferred disease into NOD neonatal mice, while Th2 T cells did not, despite being activated and bearing the same TCR as the diabetogenic Thl T cell population. Moreover, upon co-transfer, Th2 T cells could not ameliorate the Thl-induced diabetes, even when Th2 cells were co-transferred in 10-fold excess (Pakala et al . 1997) . The incidence of sepsis or septic shock has been increasing since the 1930 's, and all recent evidence suggests that this rise will continue. The reasons for this increasing incidence are many: increased use of invasive devices such as intravascular catheters, widespread use of cytotoxic and immunosuppressive drug therapies for cancer and transplantation, increased longevity of patients with cancer and diabetes who are prone to develop sepsis, and an increase in infections due to antibiotic-resistant organisms. Sepsis or septic shock is the most common cause of death in intensive care units, and it is the thirteenth most common cause of death in the United States. The precise incidence of the disease is not known because it is not reportable; however, a reasonable annual estimate for the United States is 400,000 bouts of sepsis, 200,000 cases of septic shock, and 100,000 deaths from this disease. Various micro-organisms, such as Gram-negative and Gram-positive bacteria, as well as fungi, can cause sepsis and septic shock. Certain viruses and rickettsiae probably can produce a similar syndrome. Compared with Gram-positive organisms, Gram-negative 'bacteria are somewhat more likely to produce sepsis or septic shock. Any site of infection can result in sepsis or septic shock. Frequent causes of sepsis are pyelonephritis, pneumonia, peritonitis, cholangitis, cellulitis, or meningitis. Many of these infections are nosocomial, occurring in patients hospitalised for other medical problems. In patients with normal host defences, a site of infection is identified in most patients. However, in neutropenic patients, a clinical infection site is found in less than half of septic patients, probably because small, clinically inapparent infectious in skin or bowel can lead to bloodstream invasion in the absence of adequate circulating neutrophils. Clearly there is a need to protect against sepsis or septic shock in patients running such risks. Recently, considerable effort has been directed toward identifying septic patients early in their clinical course, when therapies are most likely to be effective. Definitions have incorporated manifestations of the systemic response to infection (fever, tachycardia, tachypnea, and leukocytosis) along with evidence of organ system dysfunction (cardiovascular, respiratory, renal, hepatic, central nervous system, hematologic, or metabolic abnormalities) . The most recent definitions use the term systemic inflammatory response syndrome (SIRS) emphasising that sepsis is one example of the body's immunologically-mediated inflammatory responses that can be triggered not only by infections but also by noninfectious disorders, such as trauma and pancreatitis (for interrelationships among systemic inflammatory response (SIRS) , sepsis, and infection, see Crit . Care Med. 20:864, 1992; For a review of pathogenic sequences of the events in sepsis or septic shock see N Engl J Med 328:1471, 1993). Toxic shock syndrome toxin (TSST-1) represents the most clinically relevant exotoxin, identified as being the causative agent in over 90% of toxic shock syndrome cases (where toxic shock is defined as sepsis or septic shock caused by super-antigenic exotoxins) . Super antigens differ from "regular" antigens in that they require no cellular processing before being displayed on a MHC molecule. Instead they bind to a semi-conserved region on the exterior of the TCR and cause false "recognition" of self antigens displayed on MHC class II (Perkins et al . ; Huber et al . 1993). This results in "false" activation of both the T cell and APC leading to proliferation, activation of effector functions and cytokine secretion. Due to the superantigen' s polyclonal activation of T cells, a systemic wide shock results due to excessive inflammatory cytokine release. 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Di CO ø 0" rt ϋ ^ ø tr J SD m Ω φ SD rt 00 Φ LQ rt Φ ri tr rt SD Φ ED H Ω tr SD CO ii μ- D. μ- rt μ- 00 0 φ 0 ø 00 CD ii Ti φ 0 Φ ø * Φ 0 ii μ- co CO μ- rt co 0 13 13 00 μ- 3 φ 13 13 CO 0 ø φ co φ 00 tr 00 r μ- rt D 13 Φ tr CL 0 Φ *<: rt T3 μ- 03 LQ Φ SD 0 00 Φ ø Hi μ- 0 ri ri 03 Ω H μ- μ- LQ co ø 0 • 0 SD CO Hi ø Φ SD ø μ- μ- rr 0 Φ Hi μ- m & H 1 00 φ φ SD Ω 03 Ω ø 00 C Q SD CL Hi Ω tr μ- SD ø SD Φ CO Si φ Φ C - μ- SD 1 ø rt Ω rt Φ μ- tr rt 0 Ω £D 3 Ω O μ- Φ μ- SD 13 ø Φ Hi 0 ϋ ii PJ O ø ø 0 Di ø 00 CO 1—1. CO 0 μ- 0 Φ ^ ø tr LQ μ- 0 μ- ii Ω rt 1 ø ϋ CD CO tr 00 ri o φ μ- tr ø co In general there is a need for better and more specific possibilities to regulate the checks and balances of the immune system and treat immune mediated disorders . SUMMARY OF THE INVENTION The invention provides among others an immuno- regulator (NMPF) obtainable or derivable from a urinary metabolite of hCG, in particular from nicked forms of b- hCG, or (synthetic) peptide homologues or analogues thereof. These forms of b-hCG have peptide bond cleavages within the b-subunit (Birken et al, Endocrinology 133:1390-1397, 1993). Surprisingly, it has been found that a range of beta-HCG breakdown products provides a cascade of immunoregulators (NPMF) with a host of functions. Even more surprisingly, said immunoregulators are interrelated and derived from one another. The invention provides use of such an NMPF in preparing a pharmaceutical composition for treating an immune- mediated disorder, a pharmaceutical composition and a method for treating an immune-mediated disorder. Immune- mediated disorders as described herein include chronic inflammatory disease, such as diabetes type I or II, rheumatic disease, Sjogrens syndrome, multiple sclerosis) , transplantation-related immune responses such as graft-versus-host-disease, post-transfusion thrombocytopenia, chronic transplant rejection, pre- eclampsia, atherosclerosis, asthma, allergy and chronic auto-immune disease, and acute inflammatory disease, such as (hyper) acute transplant rejection, septic shock and acute autoimmune disease. Autoimmune diseases are a group of disorders of in general unknown etiology. In most of these diseases production of autoreactive antibodies and/or autoreactive T lymphocytes can be found. An autoimmune response may also occur as manifestation of viral or bacterial infection and may result in severe tissue damage, for example destructive hepatitis because of Hepatitis B virus infection. DETAILED DESCRIPTION OF THE INVENTION Autoimmune diseases can be classified as organ specific or non-organ specific depending on whether the response is primarily against antigens localised in particular organs, or against wide-spread antigens. The current mainstay of treatment of autoimmune diseases is immune suppression and/or, (because of tissue impairment) , substitution of vital components like hormone substitution. However, immunosuppressive agents such as steroids or cytostatic drugs have significant side effects, which limits their application. Now, the use of more specific immunoregulatory drugs is provided by the invention in the treatment of autoimmune disease and other inflammations. Based on the immunoregulatory properties, e.g. the capacities to regulate the Thl/Th2 ratio, to modulate dendritic cell differentiation, their low side-effect profile, and the beneficial clinical effects, etc., it shows these urinary metabolite preparations or synthetic analogues thereof to be very helpful in the treatment of patients with immune-mediated inflammation, such autoimmune disease. A non-limiting list of an immune diseases includes: Hashimoto's thyroditis, primary mysxoedema thyrotoxicosis, pernicious anaemia, autoimmune atrophic gastritis, Addison's disease, premature menopause, insulin-dependent diabetes mellitus, stiff-man syndrome, Goodpasture ' s syndrome, myasthenia gravis, male infertility, pemphigus vulgaris, pemphigoid, sympathetic ophthalmia, phacogenic uveitis, multiple sclerosis, autoimmune haemolytic anaemia, idiopathic thrombocytopenic purpura, idiopathic leucopenia, primary biliary cirrhosis, active chronic hepatitis, cryptogenic cirrhosis, ulcerative colitis, Sjogren's syndrome, rheumatoid arthritis, dermatomyositis, polymyositis, scleroderma, mixed connective tissue disease, discoid lupus erythematosus , and systemic lupus erythematosus . > b o o o 3 <! 3 tr Ω μ- T3 13 Φ Si 13 φ H μ- 00 Ω Ω SD tr SD 3 tr H3 Ti ri ED Hi μ- Ω tr μ- μ- μ- ED SD μ- SD φ ø φ ri X μ- 0 X f ^ ø 0 0 tr 0 μ- ø ED Φ tr tr 0 ^ φ 0 O ø Φ O 3 ø Φ 3 Ω ri Ω CO H Ω 13 Φ 13 Hi rt H 3 rt tr 3 SD rt 00 rt rt M w φ 13 g LQ μ- ri ϋ M S 3 Hi < 3 ii μ- H φ h- 1 rt Ω ii Hi SD H o 13 Φ 13 3 ii μ- rt H- ø 13 - ii ø 13 0 3 μ- μ- 0 Φ ø 0 0 0 Di CO 0 μ- ø Φ φ ii Φ tr ii 0 O SD LQ O LQ ii φ Φ H tr ED Φ ri 00 ø 0 ø 13 ø φ Ei ϋ ii 03 ϋ μ- 3 ED O 13 ø Ω Φ Ω φ Φ H 0 SD 0 SD X Φ • ! 0 φ CO O H tr 03 ø 0 CO μ- φ 00 00 φ tsi Φ ø rt Φ 0 rt 0 O 0 ϋ rt rt Ω rr ED Ω 0 ii 0 ii ø SD <l ø 0 ø 03 O μ- 0 φ 03 ϋ 0 ø *< Φ 3 μ- Φ f-3 tr μ- ^ μ- H O 3 rr ri 13 Φ Ω ED φ LQ 00 μ- tr LQ ri O rt Di X ?? ED ri 13 13 Ω Hi α Φ 0 rt ø 0 r 13 ri LQ μ- 0 LQ O Φ 0 ri rt 00 μ- ø μ- μ- H μ- μ- rt CO μ- li SD HI H o CO 0 Φ LQ H *< rr O ø ø ϋ ø ø 00 tr 0 tr φ μj ø Ω ED 03 ø t 1 ø ø μ- φ 03 Φ rt 13 Φ ^ μ 1 Φ 03 - SD 13 Φ μ- D. H LQ Φ CO ø Φ & f rt Φ 0 O LQ rt 03 μ- Φ Ω 3 ϋ O 00 ø SD 0 ED H φ 3 0 1 O H H3 tr Ω H ) ø ϋ μ- Φ tr 13 rt 13 O \-> μ- fi Φ 13 ED O tr 00 Ω rt rt ii rt Φ SD rt φ Ω φ w tr K 00 ^ ω 00 Φ Ω 0 μ- rt O tr Hi ^ 0 Φ ii 0 tr rt 0 rt O tr O 3 00 ø φ 0 - H3 CO Φ φ rt • tr ^ - ^ LQ rt μ- ri 0 g 0 SD Φ rt rt ED Φ 03 ii Φ £ ri c^ LQ rt H rt tr 00 rt rt O μ- μj SD CO μ- μ- CL Ω α 13 SD CL rt Hi SD μ- CO •- μ- 13 O Φ 0 • H o ^^ φ tr 00 ? m f m rt Φ ø rt Φ Ω • <: o tr ii μ- Φ CO μ- ø O ri ϋ Ω Si Hi 0 > <: tr 1 m Φ - μ- tr φ tr Φ rt LQ • <! 00 Φ rt to 0 ϋ μ- <! ii O ø μ- 00 tr Φ ED μ- ^ S Ω tr 00 ri ø Φ t μ> ϋ Φ Ω μ- rt Φ ii 0 Φ ø O 0 rt ϋ LQ 13 3 Si SD Ti ( • Φ 13 0 μ- Φ CO m — ' O Ω Ω 13 00 13 "< 00 μ- Φ ii ϋ LQ tr Ω ED φ ø ED φ Si φ rt ii 0 ^ tr rt ø Φ tr -• Ω μ- Hi Φ O ii 00 O rt Φ Ω ii ϋ Ω rr tr μ- tr ø Φ 0 μ- CO tr Di 13 t φ ø 3 φ ^ ~. 13 Φ SD SD Φ <! 00 ED ø ED SD rt rt LQ ED SD H 03 SD φ ED μ- ri H μ- rt Ω H 1 13 CO 0 ι-3 0 CO O rt Φ 00 μ- SD μ- ED ED rt rt φ Φ H φ 0 ii F Hi rt 0 < O tr Ω ø O ^ 00 Φ 13 ; CO φ ri μ- 3 SD μ- ø 00 tr μ- μ- ri μ- ø Di μ- 13 rt 03 μ- Si μ 1 φ rt 00 rt Φ ø O ED 0 ϋ O u μ- Ei SD -~ <! ø o rt 3 rt N Lπ H Φ Ω D- ø h- 1 Φ SD O ^^ X rt ø rt tr SD 00 O ø Ω tr 03 Φ Φ LQ Hi tr μ- μ- 13 Ω Φ O ri ϋ O ø Ω SD ri 13 rt X 1 > Φ Si μ- 00 ED 0 Di tr g H" φ Φ ø Ω ϋ ^ ED i Φ (D rt 0 00 Hi ii μ- U ^^ Si 00 φ 0 φ 0 rt SD μ- ø φ g φ ri Hi ii H3 D. φ Φ rt μ- 0 ø rt < O μ- ϋ Φ O ø o Ω ii Φ ri O 13 s rt < ø rt μ- μ- 0 3 ED 3 ► ϋ ø ri ED tr O μ- Ω 03 0 ø ϋ ii Di Φ φ • — " !U O μ- φ CO 3 LQ ϋ φ rr μ- ^ tr 3 O rt t $, rt φ Φ rt μ- μ- Si m ø HE H O ø SD 00 • O ø 3 . 13 £D Φ ø ø Ω Φ 3 μ- ø 5 < tr 0 μ- 0 H ø LQ O μ- tr tr O ø Ω 00 0 o O ø O rt ri SD Hi H O Ω Φ μ- rt ø ] LQ LQ 13 ø 13 tSJ Ei μ- rt 13 t rt 13 μj 13 ϋ • » Φ ri φ s; ø Φ ii ø 00 00 μ- Φ rt 3 Φ SD Ω ii 0 LQ ø ϋ ED Ω tr P ) ø 0 ^^ 13 • O μ- tr ri μ- Φ rt 0 tr £D ϋ Hi rt Φ O 00 Ω SD LQ rt O 00 Φ rt μ- Φ ri Ω rr CO 3 ø φ μ- ø LQ μ- 13 tr LQ Ω Φ - 0 μ- ri Φ Hi ø Φ 3 « Si φ SD μ- ø LQ SD Φ ■ : tr *< ■ <: ø 0 O 0 φ 0 * ø O Ei μ- tr 3 Φ O ø ϋ CO 3 O rt Φ rt LQ 03 rt φ ø 00 ii φ SD ø H" 00 Ω 3 H SD LQ 3 00 00 H SD X Ω CO ED 0 O 0 μ- • Φ O rt SD Φ ø Φ SD ED μ- Φ 13 tr r-3 t ϋ Ω Φ Φ t 1 Ω ϋ Φ 0 L_l. Φ 0 0 s μ- tr μ- Hi 13 O <! rt 13 ri Ei H 0 H ri £. Ω > φ 03 r μ- D- ø H O $ Hi H ø tr rt μ- ø Φ D. Φ ri ED Φ μ- ϋ μ- φ 00 Φ SD μ- O rt X 00 ^ H 0 Hi μj H μ- 0 ED 03 ø μ- ø <! CO ii ED 0 ø O N 00 00 μ- 0 03 < rt 3 O tr SD 'rj CO Hi rt rt 0 3 ø Φ Φ μ- 00 00 Ω O μ- 03 LQ <! ED rt i Φ tr 3 X 1 μ- 0 SD ≥i μ- Φ 1-3 tr 3 tr Ω ~ Ω ID LQ ø 00 o φ r 3 - μ- rt 00 μ- O O μ- tr CL 13 μj <! H tr Φ O rt O ø ^ SD rr 0 rt 0 tr SD ι-3 D< μ- 0 μ- 0 m SD Hi H ø ø μ- 13 l→ -< φ φ ii μ- ø 3 Ω Ω μ- 0 r O rt Φ H 1 0 tr Φ 0 tr ? ø tr Ω Φ φ rt s; Φ 0 Ω φ Φ O ED ■ 8 ~. φ rt O ϋ Ω SD ii - ri μ> 03 ø CO φ tO rt Ω m μ- ED LΠ ^ rt φ Ω H" ø μ- μ- ø Φ ϋ φ 0 μ- ^ φ tr LQ rt i ^ SD 0 Φ ED <! 0 <i μ- 13 <! Hi - μ- CO CO Ω SD μ- rt rt Hi ϋ rt <! Φ tr <! φ 00 ϋ μ- ED ri ϋ Φ 0 SD Φ 0 ø 00 tr μ- SD O SD 0 μ- r H ϋ CO φ SD H" φ Φ 03 rt O g φ X 0 μ- rt Φ rt rt ø Φ ø O f Φ ? CO ø ^ O Hi ø ^ 3 g Ω rt ri Si 0 0 tr Φ μ- rt σs SD rt ϋ α H φ tr 0 3 rt li Ω Hi Φ Ω ø rt tr ii tr . tr ϋ 03 O ^ r ED Φ m μ- rt φ tr Φ φ ■ ; + μ> SD φ Hi 00 > <; Ω CO tr ϋ μ- 00 Φ tr rt μ- rt μ> 0 tr ^ 03 o 1-" 03 O 03 O ø o Φ ri *< r Hi or Th2 subset development. The Thl-TH2 subsets appear to cross-regulate each other's cytokine production profiles, mainly through IFN-γ and IL-10, and from this concept it was rationalized that disturbances in the balance between these two subsets may result in different clinical manifestations [5] . IL-12 is a dominant factor promoting Thl subset polarization and dendritic cells and macrophages produce IL-12. Moreover, IL-12 induces IFN-γ production by T cells and natural killer (NK) cells. Recently, it was reported that IL-18 acts synergistically with IL-12 to induce Thl development. Polarization of Th2 cells is critically dependent on the presence of IL-4 produced by T cells or basophils and mast cells. APC- derived IL-6 has also been shown to induce small amounts of IL-4 in developing Th cells. IL-10 and APC-derived prostaglandin E 2 (PGE 2 ) inhibit IL-12 production and Thl priming. The Thl-Th2 paradigm has been useful in correlating the function of Thl cells with cell-mediated immunity (inflammatory responses, delayed type hypersensitivity, and cytotoxicity) and Th2 cells with humoral immunity. In general, among infectious diseases, resistance to intracellular bacteria, fungi, and protozoa is linked to mounting a successful Thl response. Thl responses can also be linked to pathology, like arthritis, colitis and other inflammatory states. Effective protection against extracellular pathogens, such as helminths, mostly requires a Th2 response, and enhanced humoral immunity may result in successful neutralisation of pathogens by the production of specific antibodies . In yet another preferred embodiment, the invention provides an immunoregulator capable of modulating dendritic cell differentiation. The selective outgrowth of Thl vs. Th2 type cells is dependent on the interaction of precursor Th cells with antigen-presenting cells (APC) carrying the relevant peptide in conjunction with their MHC class II molecules. Cytokines released by the APC and present during the initial interaction between dendritic cells and the pertinent T cell receptor carrying T cells drive the differentiation in to Thl vs. Th2 subsets. Recently, two different precursors for DC (myeloid vs. lymphoid) have been described in man. Selective development of DC1 from myeloid precursors occurs after stimulation with CD40 Ligand or endotoxin, and results in high production of IL-12. Lymhoid precursors give rise to DC2 cells after CD40Ligand stimulation, and produced IL- 1, IL-6 and IL-10. These cytokines are of prime importance in driving the development of the activated Th cell : IL-4 is required for the outgrowth of Th2 type cells which can be greatly enhanced by the presence of IL-10, while selective differentiation to Thl type cells is exclusively dependent on the presence of IL-12. Since DC1 are characterized by the production of IL-12, they will primarily induce outgrowth of Thl type cells, while DC2 produce IL-10 and selectively promote Th2 development in the presence of exogenous IL-4. It is shown herein that an NMPF as provided by the invention is capable of regulating or modulating DC activity and differentiation, thereby allowing selective differentiation and activity of Thl and/or Th2 cells . In one embodiment, the invention provides an immunoregulator comprising an active component obtainable from a mammalian chorionic gonadotropin preparation said active component capable of stimulating splenocytes obtained from a non-obese diabetes (NOD) mouse, or comprising an active component functionally related to said active compound, for example allowing regulating or modulating DC activity and differentiation, or allowing selective differentiation and activity of Thl and/or Th2 cells, in case of chronic inflammation, such as diabetes or chronic transplant rejection for example as shown in the detailed description herein wherein said stimulated splenocytes are capable of delaying the onset of diabetes in a NOD-severe-combined-immunodeficient mouse reconstituted with said splenocytes, or wherein said active component is capable of inhibiting gamma- interferon production of splenocytes obtained from a non- t ) ' O o o SD Hi μ- ϋ 13 Ω 0 μ- Ω ii 3 μ- ϋ 0 tr 13 rt 0 3 ED 0 3 Φ 0 μ- 3 0 tr D. Ti 03 13 <! ø φ ø 0 φ 0 φ SD O H rt Ω 0 ϋ 0 Φ rt φ i ■ <: Ω 3 φ 03 μ- 0 μ- 03 0 S3 ) LQ SD O rt SD SD 3 3 ø 0 ^^ 0 tr Ω TJ 3 0 ≥l μ- Φ Ω 0 £D SD rt o O 03 rt tr 0 rt tr α Hi Φ SD Φ μ- O Φ — Ω 00 ri 0 ED ii ri 00 SD μ- rt 0 3 13 13 ^ - ^ D. Ω φ 0 H" SD O 3 a φ Ω Ω 0 Φ tr o SD tr 3 o 1 00 0 a μ- 13 0 13 O φ 0 φ • — ø SD ri ri CL Ω CL tr μ- μ- μ- ■ ; O 3 0 H" 0 00 3 rt Hi 0 Ω Φ ø μ- Φ Φ ø φ μ- ø ø CO 00 CO L 0 Ω LQ rt rt φ Hi 0 μ- - 03 LQ SD tr 3 Φ 13 0 ø rt rt ø 0 13 ii 0 tr SD ϋ rt 0 SD SD Φ μ- SD μ- rt fi Ω ø rt s- Ω Φ 0 rt μ- Φ μ- tr Ω rf μ- 0 Si ø Φ 00 rt li <! <! LQ r tr μ- O Φ φ Hi Φ 0 ø TJ ø H μ- μ- Ω LQ μ- Ω rf O ø ø s ø O μ- 3 rt ED 3 0 Φ CO 13 13 ø SD ri SD Hi 3 ii 0 μ- 0 0 Φ ø TJ ø φ ϋ H ø 13 φ ii O 0 03 £D ø O 0 ? ED Φ Φ ii rt <! μ- Ω X ED μ- 0 ø rt SD ED rf O i tr Φ μ- 3 LQ μ- tr φ Φ <J 13 ED O rt 03 CO . φ μ- ø SD Φ Φ 0 μ- SD CO 00 ø 0 rf ED SD μ- tr ED D- φ thereof. Functional fragments herein relates to the immunoregulatory effect or activity as for example can be measured in the septic shock or NOD mouse experimental model. Fragments can be somewhat (i.e. 1 or 2 amino acids) smaller or larger on one or both sides, while still providing functional activity. The invention further provides a method for selecting an immunoregulator comprising determining therapeutic effect of an immunoregulator by subjecting an animal prone to show signs of diabetes to a peptide composition or fraction thereof, and determining the development of diabetes in said animal . Similarly, a method for selecting an immunoregulator comprising determining therapeutic effect of an immunoregulator by subjecting an animal prone to show signs of septic shock to a peptide composition or fraction thereof and determining the development of septic shock in said animal is provided herewith, the septic shock model also being a fast read-out model for the determination of anti-diabetic activity. Preferably, peptide compositions tested in a method according to the invention are obtained from a peptide having at least 10 amino acids such as a peptide having an amino acid sequence MTRVLQGVLPALPQWC or functional fragment (e.g. a breakdown product) or functional analogue thereof. Functional fragments herein relates to the immunoregulatory effect or activity as for example can be measured in the septic shock or NOD mouse diabetes experimental model. Fragments can be somewhat (i.e. 1 or 2 amino acids) smaller or larger on one or both sides. Surprisingly, it has been found in the animal test systems as provided herein that a range of beta-HCG breakdown products provides a cascade of peptide immunoregulators with a host of functions. Even more surprisingly, said immunoregulator peptides are interrelated and derived from one another and can also be produced synthetically. The invention provides use of such an immunoregulating peptide in preparing a pharmaceutical composition for treating an immune- mediated disorder, a pharmaceutical composition and a method for treating an immune-mediated disorder. A useful peptide found in a method according to the invention can be further modified or improved for one or more characteristics by peptide synthesis skills known, for example by identification of functional analogues with replacement mapping techniques, by binding-site (PEPSCAN) detection technology and so on, and can comprise D- or L- amino acids or modified amino acids at one or more (or all) places in the desired sequence. Also, peptide derivatives can be made, such as by circularization (for example by providing with (terminal) cysteines, dimerisation or multimerisation, by linkage to lysine or cystein or other side-chains that allow linkage or multimerisation, repeated, brought in tandem configuration, conjugated or otherwise linked to carriers known in the art, if only by a labile link that allows dissociation. Of course, newly developed peptide compositions or derivatives can be tested according to a method as provided herein. Functional analogue herein not only relates to analogues or homologues peptides from MIF or MIF-like proteins, from LH or PMSG, or gonadotropin-like proteins, be it modified by glycosylation or modification with unidentified amino acids or non-protein amino acids, but also to synthetic peptide analogues that can be made with peptide synthesis skills known, for example by identification of functional analogues with replacement mapping techniques, PEPSCAN detection technology and so on, and can comprise D- or L-amino acids or modified amino acids at one or more (or all) places in the desired sequence. Also, peptides can be circularised (for example by providing with (terminal) cysteines, dimerised or multimerised, by linkage to lysine or cystein or other side-chains that allow linkaage or multimerisation, repeated, brought in tandem configuration, conjugated or otherwise linked to carriers known in the art, if only by a labile link that allows dissociation. Preferably, an immunoregulator as provided by the invention is obtainable or derivable from a gonadotropin from a pregnant mammal, preferably a human, for example obtainable from a pharmacological preparation prepared to contain (placental) gonadotropins such as pregnant mare serum gonadotropin (PMSG) found in serum of pregnant mares, or pregnant mouse uterus extract (PMUE) extracted from uteri of gravid mice or human chorionic gonadotropin (hCG or HCG) found in blood or urine of pregnant women. An NMPF as provided by the invention can be associated with or without gonadotropin as for example present in the urine of first trimester of pregnancy (NMPF) and in commercial hCG preparations (NMPF) has immune regulatory effects . In particular, NMPF can inhibit or regulate autoimmune and acute- and chronic-inflammatory diseases. TNF and IFN-gamma are pathologically involved in acute inflammatory disease such as sepsis or septic shock and also in auto-immune and chronic inflammatory diseases. Since NMPF has the ability to regulate T-cell sub- populations and inhibit TNF and IFN-gamma, NMPF can be used to treat, suppress or prevent immune mediator disorders such as sepsis or septic shock (acute inflammatory disease) as well as auto-immune disease or chronic inflammatory diseases such as systemic lupus erythematosus, diabetes, rheumatic disease, Sjogrens syndrome, multiple sclerosis, post-partum thyroid dysfunction and thyroid dysfunction related dementia's such as Alzheimer's disease, auto-immune thromocytopenia and others, such as allergies and chronic inflammatory disease and transplantation related immune responses . Furthermore, the invention provides detection of genetic predisposition for immune-mediated disorders, whereby individuals with particular isoforms or amino acid variations in HCG or HCG derived peptides or immunoregulators are predisposed for certain disorders. Once known, it is provided by the invention to provide the genetically predisposed individual with the proper peptide immunoregulator via gene therapy In particular, an immunoregulator according to the invention is provided wherein said functional fragment comprises a peptide having at least 10 amino acids such as having an amino acid sequence, LQGVLPALPQWC (β45 + S48) , or VLPALPQWC (β 48) or LQGVLPALPQ (β 45), or a functional analogue thereof, herein also called NMPF-K. Said immunoregulator comprising said peptide (or mixtures of peptides) having the desired length of about at least 10 amino acids (and especially when bound to a larger molecule such as when bound via its cysteine to another beta-HCG fragment) generally regulates Thl/Th2 balance as well as innate immunity during an immune mediated disorder. For example septic shock, LPS induced proliferation of splenocytes or diabetes is accelerated or aggravated. Similar activity is provided by a relative short-chain peptide (third immunoregulator, 3-5 amino acids long) that comprises MTRV or MTR or QWC or WC or CLQG or LQGV or LQG (and especially when bound to a larger molecule such as when bound via its cysteine to another beta-HCG fragment) . More in particular, a first immunoregulator is provided comprising a functional fragment comprising an amino acid sequence VLPALPQWC or LQGVLPALPQ or functional analogue thereof which counteracts the regulatory activities of another, second immunoregulator according to the invention wherein said functional fragment comprises an amino acid sequence of from 9 to 6 amino acids (herein also called NMPF-Kb) , such as VLPALPQ or GVLPALPQ or GVLPALP or VLPALP or functional analogue thereof, which for example is capable of regulating Thl/Th2 balance as well as innate immunity during an immune mediated disorder such that it is capable to reduce the clinical symptoms seen with immune-mediated disorders, such as septic shock, LPS induced proliferation of splenocytes or diabetes, instead of accelerating or aggravating these symptoms of immune- mediated disease, as for example is shown in the detailed description where NMPF-Kb is capable of protecting a mouse against a lipopolysaccharide induced septic shock, or other acute or chronic immune-mediated disorder as explained herein. As there is an overlap between β45 and β48 peptide (β45; LQGVLPALPQ β48: VLPALPQWC), we also tested denaturated β45+β48 (LQGVLPALPQWC) peptide for its effect on LPS induced proliferation (in vitro) and anti-shock activity (in vivo) in BALB/c mice. Our results showed that denaturated β45+β48 peptide inhibits LPS induced proliferation and in vivo septic shock. Breakdown products are generated via proteolysis, for example by lysis with leucocyte elastate, and can undergo further notification such as by the activity of (glutathion) transferases . One of the possible breakdown product of β45+β48 peptide is LQG which resembles glutathione (tripeptide of G, C, and Q with L-glutamate having an isopeptide bond with the amino moiety of L-cysteine) . We have shown that NMPF also inhibits (toxin) streptozotocin (SZ) induced diabetes in mice through destruction of beta-cells. One of the mechanisms involved in the destruction of pancreatic beta cells is the formation of reactive radicals (ROS, NO etc.) that also play an important role in the pathogenesis of many other diseases like nephropathy, obstructive nephropathy, acute and chronic renal allograft rejection, auto-immune diseases (like SLE, rheumatoid arthritis, diabetes, MS) , AIDS, diseases related to angiogenesis, atherosclerosis, thrombosis and type II diabetes mellitus. So, it is likely that NMPF also acts as ' anti-oxidant ' . For example breakdown products of β45+β48 such as LQG or CLQG peptides alone or in combination with certain carbohydrates or modified with unidentified amino acids or with nonprotein amino acids such as β-alanine, γ-Aminobutyric acid, Ornithine, etc. posses immunomodulatory activity (NMPF) . Not wishing to be bound by theory, NMPF-K and NMPF- Kb activity can be described as maintaining a Thl/Th2 balance, whereby NMPF-K acts as if binding to an appropriate receptor but not activating it whereas NMPF- Kb is binding to said receptor and activating it to modulate the Thl/Th.2 balance in a beneficial way. NMPF-K and NMPF-Kb are therein both ligands of the same or at least a conformationally similar or alike receptor molecule. Said receptor molecule is now also provided, since it and its acitivity are defined herein by said ligands . For example, our results show that NMPF-Kb inhibits sepsis or septic shock caused by endotoxin or by exotoxin. NMPF-Kb as provided by the invention inhibits or counters immune mediated auto-immune diseases, chronic inflammatory diseases as well as acute inflammatory diseases . The invention provides a pharmaceutical composition for treating an immune-mediated disorder such as an allergy, auto-immune disease, transplantation-related disease or acute or chronic inflammatory disease and/or provides an immunoregulator (NMPF) , for example for stimulating or regulating lymphocyte action comprising an active component said active component capable of stimulating splenocytes obtained from a 20 -week-old female non-obese diabetes (NOD) mouse, said stimulated splenocytes delaying the onset of diabetes in a NOD- severe-combined-immunodeficient (NOD.scid) mouse reconstituted at 8 weeks old with said splenocytes, or comprising an active component functionally related thereto . In one embodiment, the invention provides an pharmaceutical composition or immunoregulator wherein said active component is capable of inhibiting gamma- interferon production or stimulating interleukine-4 production of splenocytes obtained from a 20 -week-old female non-obese diabetes (NOD) mouse. Clinical grade preparations of gonadotropins such as hCG and PMSG have since long been used to help treat reproductive failure in situations where follicular growth or stimulation of ovulation is desired. Said preparations are generally obtained from serum or urine, and often vary in degree of purification and relative activity, depending on initial concentration in serum or urine and depending on the various methods of preparation used. In a particular embodiment, the invention provides a immunoregulator comprising an active component obtainable or derivable from a mammalian CG preparation said active component capable of stimulating splenocytes obtained from a non-obese diabetes (NOD) mouse, or comprising an active component functionally related to said active compound, for example wherein said stimulated splenocytes are capable of delaying the onset of diabetes in a NOD- severe-combined-immunodeficient mouse reconstituted with said splenocytes. The invention also provides an immunoregulator wherein said active component is capable of inhibiting gamma-interferon production obtained from a non-obese diabetes (NOD) mouse. The invention also provides an immunoregulator wherein said active component is capable of stimulating interleukine-4 production of splenocytes obtained from a non-obese diabetes (NOD) mouse. An immunoregulator as provided by the invention (NMPF) has immune regulatory effects. In particular, NMPF can inhibit or regulate auto-immune and acute- and chronic-inflammatory diseases. TNF and IFN-gamma are pathologically involved in acute inflammatory disease such as sepsis or septic shock and also in auto-immune and chronic inflammatory diseases. Since NMPF has the ability to regulate T-cell sub-populations and inhibit TNF and IFN-gamma, NMPF can be used to treat, suppress or prevent immune mediator disorders such as sepsis or septic shock (acute inflammatory disease) as well as auto-immune disease or chronic inflammatory diseases such as systemic lupus erythematosus, diabetes, rheumatoid arthritis, post-partum thyroid dysfunction, auto-immune thromocytopenia and others, such as allergies and chronic inflammatory disease (i.e. rheumatic disease, Sjδgrens syndrome, multiple sclerosis) and transplantation related immune responses. Our results for example show that NMPF- Kb inhibit sepsis or septic shock caused by endotoxin or by exotoxin. NMPF-Kb as provided by the invention inhibits or counters immune mediated auto-immune diseases, chronic inflammatory diseases as well as acute inflammatory diseases. The invention thus provides use of an immunoregulator according to the invention for the production of a pharmaceutical composition for the treatment of an immune-mediated-disorder, for example wherein said immune-mediated disorder comprises chronic inflammation, such as diabetes, multiple sclerosis or chronic transplant rejection, wherein said immune- mediated disorder comprises acute inflammation, such as septic or anaphylactic shock or acute or hyper acute transplant rejection, wherein said immune-mediated disorder comprises auto-immune disease, such as systemic lupus erythematosus or rheumatoid arthritis, wherein said immune-mediated disorder comprises allergy, such as asthma or parasitic disease, in particular wherein said immune-mediated disorder comprises an overly strong immune response directed against an infectious agent, such as a virus or bacterium or wherein said immune- mediated disorder comprises pre-eclampsia or another pregnancy related immune-mediated disorder. Use of NMPF-K as contraceptive (e.g. as morning-after-pill or contraceptive vaccine eliciting contraceptive or sterilising antibodies in the vaccinated female mammal) is also provided. Use of NMPF-Kb is provided for facilitating fertility, especially in case where improved implantation is required. Especially, use is provided wherein said treatment comprises regulating innate immunity and/or relative ratios and/or cytokine activity of lymphocyte, dendritic or antigen presenting cell subset-populations in a treated individual, in particular wherein said subset populations comprise Thl or Th2 , or DC1 or DC2 cells. Thus the invention provides a method for treating an immune-mediated-disorder comprising subjecting an animal to treatment with at least one immunoregulator according to the invention, in particular wherein said disorder comprises diabetes or sepsis. The invention provides also a method for diagnosing or determining the risk of non-pregnancy related immune disorders associated with Thl/Th2 misbalance as demonstrable by a misbalance between NMPF-K and NMPF-Kb, as for example produced or derived from pituitary derived gonadotropin, especially in age-related disease such as auto-immune and chronic inflammatotory disease, such as type II diabetes, rheumatic disease, thyroid dysfunction related mental disease such as dementia's like Alzheimers and others, and atherosclerosis and related disease, said method comprising determining in a sample, preferably a blood or urine sample, the relative ratio of a relative long-chain peptide versus a relative short- chain peptide, said peptides derivable from breakdown of beta-HCG, in particular comprising determining the relative ratio of a relative long-chain peptide versus a relative short-chain peptide derived from breakdown a peptide having an amino acid sequence MTRVLQGVLPALPQWC, for example wherein said relative long-chain peptide comprises an amino acid sequence LQGVLPALPQ or GVLPALPQ or VLPALPQ or GVLPALP or VLPALP, in particular wherein said relative short-chain peptide comprises MTRV or MTR or PALP or QWC or WC or LQGV or LQG. Detection of said long-chain peptides and short chain peptides, be it modified by glycosylation or modification with unidentified amino acids or non-protein amino acids is preferably achieved by immunological detection methods as known in the art . The invention provides also a method for diagnosing or determining the risk of a pregnancy related immune- mediated disorder such as pre-eclampsia, or other immune- mediated disorder and the outcome of pregnancy and/or pregnancy related immune disease (such as gestation diabetes mellitus (GDM) ) comprising determining in a sample, preferably a urine sample, the relative ratio of a relative long-chain peptide versus a relative short- chain peptide, said peptides derivable from breakdown of beta-HCG, in particular comprising determining the relative ratio of a relative long-chain peptide versus a relative short-chain peptide derived from breakdown a peptide having an amino acid sequence MTRVLQGVLPALPQWC, for example wherein said relative long-chain peptide comprises an amino acid sequence LQGVLPALPQ or GVLPALPQ or VLPALPQ or GVLPALP, in particular wherein said relative short-chain peptide comprises MTRV or MTR or QWC or WC,or LQGV or LQG. Anecdotal observations and laboratory studies indicated previously that hCG might have an anti-Kaposi ' s sarcoma and anti-human-immunodeficiency-virus effect (Treatment Issues, July/August 1995, page 15. It has been observed that hCG preparations have a direct apoptotic (cytotoxic) effect on Kaposi ' s sarcoma (KS) in vitro and in immunodeficient patients and mice and a prohematopoetic effect on immunodeficient patients (Lunardi-Iskandar et al . , Nature 375, 64-68; Gill et al . , New. Eng. J. Med. 335, 1261-1269, 1996; US patent 5677275) , and a direct inhibitory antiviral effect on human and simian immunodeficiency virus (HIV and SIV) (Lunardi-Iskandar et al . , Nature Med. 4, 428-434, 1998, US patent 5700781) . Said cytotoxic and anti-viral effects have also been attributed to an unknown hCG mediated factor (HAF) , present in clinical grade preparations of hCG. However, commercial hCG preparations (such as CG-10, Steris Profasi, Pregnyl, Choragon, Serono Profasi, APL), have various effects. Analysis of several of these, (AIDS, 11: 1333-1340, 1997) for example shows that only some (such as CG-10, Steris Profasi) are KS-killing whereas others (Pregnyl, Choragon, Serono Profasi) were not. Secondly, recombinant subunits of (a or β) hCG were killing but intact recombinant hCH not. It was also found that the killing effect was also seen with lymphocytes. Therapy of KS has recently been directed at using beta- hCG for its anti-tumour effect Eur. J. Med Res. 21: 155- 158, 1997, and it was reported that the beta-core fragment isolated from urine had the highest apoptotic activity on KS cells (AIDS, 11: ,713-721, 1997). Recently, Gallo et . al . reported anti-Kaposi ' s Sarcoma, anti-HIV, anti-SIV and distinct hematopoietic effects of clinical grade crude preparations of human chorionic gonadotropin (hCG) (Lunardi-Iskandar et al . 1995, Gill et al . 1996, Lunardi-Iskandar et al . 1998) . In contrast to their previous studies, it is also claimed that the anti-tumour and anti-viral activity of hCG preparation is not due to the native hCG heterodimer, including its purified subunits or its major degradation product, the β-core; instead the active moiety resides in an as yet unidentified hCG mediated factor (HAF) . Whatever the true factor may be, these unidentified factors in several hCG preparations have anti-tumour activity through the selective induction of apoptosis, besides direct cytotoxic effects on the tumour cells. Furthermore, they postulated that the anti-tumour activity could not be due to an immune-mediated response, since there was no infiltration of the tumour with mononuclear cells. Moreover, the reported pro-hematopoietic effect of clinical grade hCG was noted in clinical studies in humans infected with HIV, (Lunardi-Iskandar et al . 1998) indicating that the hematopoietic effect is indirect, and caused by rescuing CD4+ cells otherwise killed by HIV through the anti-HIV activity of hCG. The invention provides an immunoregulator or a pharmaceutical composition for treating an immune- mediated disorder obtainable from a hCG preparation or a fraction derived thereof. The effects of said immunoregulator include a stimulating effect on lymphocyte populations (such as found in peripheral lymphocytes, thymocytes or splenocytes) , instead of cytotoxic or anti-viral effects. The invention provides a method for treating an immune-mediated-disorder comprising subjecting an animal to treatment with at least one immunoregulator obtainable from a pregnant mammal. Said treatment can be direct, for example treatment can comprise providing said individual with a pharmaceutical composition, such as a hCG or PMSG preparation, comprising an immunoregulator as provided by the invention. It is also possible to provide said pharmaceutical composition with a fraction or fractions derived from a pregnant animal by for example sampling urine or serum or placental (be it of maternal or foetal origin) or other tissue or cells and preparing said immunoregulator comprising said active component from said urine or serum or tissue or cells by fractionation techniques known in the art (for example by gel permeation chromatograpy) and testing for its active component by stimulating a NOD mouse or its splenocytes as described. In particular, said preparation or component is preferably derived from a pregnant animal since an embryo has to survive a potentially fatal immunological conflict with its mother: developing as an essentially foreign tissue within the womb without triggering a hostile immune attack. So, to prevent this rejection "allograft" the immunological interaction between mother and fetus has to be suppressed, either for instance through lack of fetal-antigen presentation to maternal lymphocytes, or through functional "suppression" of the maternal lymphocytes. If fetal antigens are presented, maternal immune responses would be biased to the less damaging, antibody-mediated T helper 2 (Th2)- type . This would suggest that pregnant women are susceptible to overwhelming infection, which is not the case. Female individuals during pregnancy maintain or even increase their resistance to infection. Moreover, while said individuals normally are more susceptible to immune diseases than male individuals, especially autoimmune diseases, during pregnancy they are more resistant to these diseases. The invention also provides a method for in vitro stimulation of lymphocytes and transferring said stimulated lymphocytes as a pharmaceutical composition to an animal for treating said animal for an immune mediated disorder. In a particular embodiment of the invention a pharmaceutical composition is provided comprising lymphocytes stimulated in vitro with an immunoregulator provided by the invention. In a preferred embodiment of the invention, said disorder comprises diabetes, yet other immune mediated disorders, such as acute and chronic inflammation, can also be treated. In yet another preferred embodiment, said disorder comprises sepsis or septic shock. The invention provides a method of treatment for an animal, preferably wherein said animal is human. In a particular embodiment, a method provided by the invention is further comprising regulating relative ratios and/or cytokine activity or cytokine expression or marker expression of lymphocyte, dendritic or antigen presenting cell subset-populations in said animal, such as subset-populations that comprise Thl or Th2 cells, or Th3 or Th8 cells, or DC1 or DC2 cells or other effector or regulatory T-cell populations. The invention also provides an immunoregulator for use in a method according to the invention, and use of said immunoregulator, preferably obtainable from a pregnant mammal, for the production of a pharmaceutical composition for the treatment of an immune-mediated- disorder, preferably selected from a group consisting of allergies, auto-immune disease (such as systemic lupus erythematosus or rheumatoid arthritis) , transplantation- related disease and acute (such as septic or anaphylactic shock or acute or hyper acute transplant rejection) and chronic inflammatory disease (such as atherosclerose, diabetes, multiple sclerosis or chronic transplant rejection) . Furthermore, the invention provides a use according to the invention wherein said immune-mediated disorder comprises allergy, such as asthma or parasitic disease, or use according to the invention wherein said immune-mediated disorder comprises an overly strong immune response directed against an infectious agent, such as a virus or bacterium. Often in most of these diseases production of autoreactive antibodies and/or autoreactive T lymphocytes can be found mounting or being part of a too strong immune response. 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M 00 0 Φ LQ 0 α H3 Φ O M O 0 SD co rt — 03 μ- ED 03 LQ Ω ø 0 3 Φ M M 3 Φ 03 0 a Φ tr rt Ω φ Hi LQ ø ^ φ D- rt 03 Ω φ rt Φ μ- Hi 0 rt Ω O tr 0 0 LQ > Hi Φ ^^ O φ rt 0 Ω 0 O ED % rt SU Φ O rt tr ω - Φ 03 su O tr Hi ø tr Ω ED 0 Φ 00 Ω tr HI 3 X M ED φ ø r- 0 M μ- O 00 Di ø ø o ø TJ M 0 rt o £D 0 Φ 13 Φ rt tr 03 Φ ø O μ- M μ- CO Φ CD rt φ O ø < Hi μ- O tr 0 rt rr 03 M ED - SD SD r r Ω Φ Ω 03 ø Ω 00 SU ϋ Φ O tr Ω •> tr ED 0 μ- μ- O SD ø μ- rf φ ø tr ø φ M tr SD tr 0 rt SD Hi tr μ- rt μ- X Φ *< 03 LQ O ø 0 M 03 ø tr CL φ ø M ED Ω Ω 03 Φ SD Ω 3 ED μ- 0 <j μ- SD SD SD g M £, 3 ø φ Hi φ μ- φ μ- μ- φ 0 φ tr μ- 0 3 rt SD φ 0 M 0 Φ Ω tr 3 Ω ^ M tr rt 13 μ- φ CO Φ μ- Φ ø tr μ- ø 0 M SD ι-3 ø CL SD μ- 0 CL rt 0 φ Ti rt f d 00 Φ tr 0 3 ø X ø 3 Ω o ø ^ ø rt rt o μ- M μ- tr μ- <! Φ μ- ø μ- ø tr rt M 03 *l ø Φ O 3 μ- μ- SD Hi SD rt 0 SD ø φ Φ Φ Hi 3 ø > Φ tr ø Φ SD rt SD Ω Φ Φ Φ Φ SD Φ <J ø ø ø Φ > μ- LQ rt rt ED • ø 0 3 ED Hi ø M 13 rt tr rt CL rt CO ^ SD ED 0 tr μ- μ- ø LQ Hi Ti Ω 0 ED Φ tr rt LQ ED ED 0 ø 0 o SD Hi Φ ■ ! 0 O O Φ μ- SD ø SD 03 Ω D. ^ ø Di φ μ- Φ M rt SD 0 0 Φ Φ • Ω Ω Φ ø ϋ Hi 0 Φ SD ED rt 0 ø 0 Ω μj SD Ω <! φ rt Ω Φ μ- M CD μ- , — . 0 rr rt LQ O ϋ Ω ? rt ϋ Φ 03 tr LQ rt rt Ω SD O rt ø φ Di 0 μ- rt O 03 03 0 ii 0 0 μ- μ- 0 ø ϋ Φ rt CO tr μ- 0 • Φ O μ- Φ μ- Si 0 0 μ- SD ø φ 03 μ- ϋ ø O 03 3 0 ø Φ ^ 0 0 M φ μ- <! r-3 03 ^ ø Ω rt rt μ- μ- 0 M 00 φ rt CL 03 CL rt tr 03 O Φ 0 0 M ø ø SD LQ 00 φ tr 0 ED Ω SD 3 3 0 M rf μ- μ- 03 μ- μ- •<! 13 <! ø 03 SD O Ω SD SD 03 03 rt ø SD ø to 0 0 0 M tr ^ 3 3 CO rt Φ ø ø Ω O O μ- rt 0 Ω tr tr 03 rt CL rf μ- M 0 rt 0 rt LQ Φ rt Ω ø ø 0 • tr ø O LQ Φ ED ø rt 0 ø ø Si Ω 0 13 tr SD Φ 0 O ø SD 0 03 Ω tr tr ≥i rt O Φ ø ø Hi Φ 3 X M tr 03 ø O ø 0 SD rt Φ φ 13 Si 0 0 LQ rt SD Φ M Φ O ED 7? M φ φ ι-3 μ- μ- rt μ- 0 Φ Φ CD 0 Ω 3 0 03 Ω 0 rt O ■ ! rf M ø rt μ- M rf tr ϋ ø Di O 03 CL Φ rt SD SD μ- Φ μ- rt 0 Ω 0 0 Φ M tr 3 Ω ø Ω 0 tr φ Φ μ- SU ED M μ- μ- ^ — , ED μ- ■ <! ED ι-3 M Hl <! 0 φ Φ SD 0 0 03 Hi ø φ Φ Φ Φ μ- Φ Φ Φ 0 03 ø ø rt 13 3 SD ø CQ f CD < 03 CO 03 μ- SD Φ 03 M ϋ ED Hi 3 . 0 SD fi M 03 rt M SD φ rt LQ r tr ø SD rr <! Ω Φ 0 Ω 0 Ω ii 0 13 M μ- Ω μ- Ω ϋ μ- μ- M - 03 M Ω tr ø Φ Φ LQ Φ Φ W g 03 Φ 3 — Φ μ- Φ 0 Ω Ω rt ø H3 ■ <! μ- ø ED Φ 03 rt Φ μ- 0 φ ϋ < Φ 03 ø φ ^ Φ tr 03 SD O 3 LQ 0 0 SD O t ED tr rt Ω Si rf rt ED M μ- rt 03 Ω < μ- μ- Φ rt TJ — Φ Φ 0 0 ø μ- SD rt 3 ø 03 Φ M 0 Φ rt μ- Φ SD 0 Φ O 0 Hi O ED rt φ ø ø ø ,—, rt μ- r 0 Ti M μ- rt 0 ≤; ø M Φ CD Si μ- 03 M Ω 03 X ϋ μ- ø CO μ- ø Φ J rf ϋ O 0 μ- SD rt Hi M tr ϋ O ø SD 03 13 μ- μ- μ- ø 03 CO rt μ- SD 00 Ω rt o rf Ω Φ Φ ED 0 SD ø $, rt φ φ φ rt 0 ø ø 3 LQ μ- ø μ- μ- Ω μ- 0 M φ 0 0 rt ø ϋ 3 rt rt Hi μ- μ- μ- CD 13 SD SD μ- 0 0 ϋ LQ 3 ø tr O rt ø Φ φ ϋ M O μ- M rt SD 0 Φ rt rt ø rt ø D. ϋ CO 0 Hi 00 ø ø μ- μ- 03 0 CO Φ rt 0 M 0 0 ø ^ μ- O LQ Φ κ| tr Ω tr μ- ED O SD 3 > LQ Φ Ω rt ø ø rt 0 Hi 13 SD 0 LQ Hi 0 ø φ SD Φ SD rt 00 03 rt 03 13 03 00 SD 03 φ O φ μ- Ω O Hi SD tr Ω μ- 3 rt O 0 rt rt ^ μ- φ μ- *< rt rt 0 CL rt ED tr Hi Φ 0 M SD ø ED Φ μ- tr 0 0 Ω 3 O tr <J 0 μ- 0 Φ rt tr M Ω rt Φ 13 LQ 03 <! ø φ Φ S3 ) Φ O $ ø φ φ ø <! Hi 3 O tr Φ SD rt μ- μ- 03 μ- 03 13 0 ø rt μ- 03 Ω 0 φ 0 Φ 03 O Ω rt M rf Di 0 SD 03 rt tr rr • SD φ 0 rt 0 ø O M tr μ- Φ M μ- Φ φ tr 0 Hi & tr ≥l M ED μ- 03 0 μ- 0 ϋ O 0 03 Φ 0 SD 0 03 Ω ø φ Hi ED φ rf 0 Φ ϋ ø (specific) systems, both of which have cellular and humoral components. Examples of cellular components of the innate immune system are monocytes, macrophages, granulocytes, NK cells, mast cells, gd T cell etc, while, examples of humoral components are lysozyme, complement, acute phase proteins and mannose-binding lectin (MBL) . The major cellular components of the adaptive immune system are T and B cells, while examples of humoral components are antibodies. The adaptive system has been studied most because of its specificity, effectiveness at eliminating infection and exclusive presence in higher multicellular organisms. The innate system is often considered primitive and thought to be 'unsophisticated' . However, the innate system not only persists but could also play a critical role in one of the most fundamental immune challenges - viviparity. The innate system instigates an immune response by processing and presenting antigen in association with major histocompatibility complex (MHC) class I and II molecules to lymphocytes. Full response often requires adjuvant (such as endotoxin) , which, through interaction with the innate immune system, produce costimulatory surface molecules or cytokines. This determines the biological significance of antigens and communicates this information to the adaptive system. So it instructs the adaptive system to either respond or not. So these two great arms of immune system not only influence each other but also regulate each other at least at the cellular level through for example cytokines and co-stimulatory molecules etc. There are many physiological conditions and immune pathologies where these two systems are involved separately or in combination. For example, it has been shown that in pregnancy the maternal innate immune system is more stimulated, or for it has been proposed that type II diabetes mellitus is a disease of a chronic hyperactive innate immune system. Another example is the involvement of the innate immune system in listeriosis. Dysregulation in the adaptive immune system may also lead to immune diseases like systemic or organ-specific autoimmunity, allergy, asthma etc, but it can also play a role in the maintenance of pregnancy and in the prevention of "allograft" rejection. As mentioned above, the adaptive system has been studied most because of its specificity, effectiveness at eliminating infection, and exclusive presence in higher multicellular organisms. Its regulation has also been studied most. For example, it well known that the cytokine micro-environment plays a key role in T helper cell differentiation toward the Thl or Th2 cell type during immune responses. IL-12 induces Thl differentiation, whereas IL-4 drives Th2 differentiation. Recently it has also been shown that subsets of dendritic cells (DC1, DC2) provide different cytokine microenvironments that determine the differentiation of either Thl or Th2 cells. In addition, negative feedback loops from mature T helper cell responses also regulate the survival of the appropriate dendritic cell subset and thereby selectively inhibit prolonged Thl or Th2 responses. Moreover, development of Thl responses can be antagonized directly by IL-4 and indirectly by IL-10, which inhibits the production of IL-12 and interferon-g- inducing factor (IGIF) by macrophages stimulated by the innate immune response. Th2 cells dependent on IL-4 to proliferate and differentiate have been implicated in allergic and atopic manifestations, and in addition through their production of IL-4 and IL-10, have been suggested to play a role in tolerance. Specifically, it has been suggested that Thl to Th2 switch may prevent the development of organ-specific autoimmune pathologies and required for the maintance of pregnancy. Recently it has become clear that distinct subsets of regulatory T cells are responsible for regulating both Thl and Th2 responses and prevent the development of immune pathologies . One of the common features of many of these regulatory T cells is that their function is at least in part due the action of TGF-beta; this would be in keeping with the ability of TGF-beta to inhibit both Thl and Th2 development while IL-10 could preferentially inhibit Thl alone . The selective outgrowth of Thl vs. Th2 type cells is dependent on the interaction of precursor Th cells with antigen-presenting cells (APC) carrying the relevant peptide in conjunction with their MHC class II molecules. Cytokines released by the APC and present during the initial interaction between dendritic cells and the pertinent T cell receptor carrying T cells drive the differentiation in to Thl vs. Th2 subsets. Recently, two different precursors for DC (myeloid vs . lymphoid) have been described in man. Selective development of DC1 from myeloid precursors occurs after stimulation with CD40Ligand or endotoxin, and results in high production of IL-12. Lymhoid precursors give rise to DC2 cells after CD40Ligand stimulation, and produced IL-1, IL-6 and IL- 10. These cytokines are of prime importance in driving the development of the activated Th cell: IL-4 is required for the outgrowth of Th2 type cells which can be greatly enhanced by the presence of IL-10, while selective differentiation to Thl type cells is exclusively dependent on the presence of IL-12. Since DC1 are characterized by the production of IL-12, they will primarily induce outgrowth of Thl type cells, while DC2 produce IL-10 and selectively promote Th2 development in the presence of exogenous IL-4. NMPF as provided by the invention is able to regulate the Thl/Th2 balance in vivo (BALB/c, NOD) and in vitro. In dominant Thl phenotype models like NOD, NMPF (like NMPF-P and its fractions) amongst others down- regulates the IFN-gamma production (in vivo/in vitro) and promote the IL-10 and TGF-beta production, in contrast to IL-4 production, which indicates the induction of regulatory cells like Th3 and Tri by NMPF. These regulatory cells may play role in the therapeutic effects of NMPF in immune and inflammatory diseases and immune tolerance. Furthermore, the invention provides an immunoregulator selected by a method according to the invention, a pharmaceutical composition comprising such a to t o o rt Ω Si μ- Φ 03 ED Ω tr tr μj S Hi tr rt Ω SD μ- O 13 0 TJ tr μ- Hi SD rt 13 03 Φ M μ- ø X 0 tr 0 Φ Φ ø μ- 0 φ tr μ- 0 ø ø tr 0 tr < 3 ED 0 0 0 Φ ED Φ 03 <! SD 0 0 3 Ω Di O ø SD 0 rt Hi ED SD 3 Ω rt Φ Φ M Ω S Ω Φ 3 LQ < Q 1 0 13 Ω Φ 3 φ rt Ω φ SD Ω ø 4 LQ ø ø μ- μ- ED 13 Φ tr 0 ø ø 13 Φ Φ μ- 3 Φ SD ø Hi 0 0 0 μ- 3 Φ φ 03 ø M tr rt S Ω μ- 03 rt M H 0 • ø μ- ø 03 03 . ED μ- SD M μ- Ω ø SD H3 0 μ- O μ- O 3 3 ø rt ø rf 03 μ- Φ tr •<; φ ø Hi φ 0 Ω 0 SD 0 rt Ω Ω tr M ø rt CL 0 Φ SD Φ Q 0 0 CO Φ > CL LQ 0 03 rt Ω μ- rt 03 μ- 0 Φ φ O μ- LQ SD SD μ- 0 ø r C μ- 0 3 Ω ø tr μ- ED ED μ- 0 Ω O M 0 Hi tr 03 rt Φ μ- rr μ- ED rt 3 SD μ- SD Ω S rt 3 = > Φ 3 0 M 3 0 M ø SD rt μ- ø rr 03 μ- 03 H) O μ- 3 tr Ti rt 0 ø ^ O μ- O Φ tr 3 CL 3 • ; φ 03 rt μ- 0 ϋ SD tr SD ø μ- O ø 3 3 Φ M tr CL <! 0 rt 0 ϋ φ 03 0 μ- φ ø 0 . O Ω <! μ- ø φ • ! LQ SD Φ Hi 3 M μ- Φ Φ μ- Si tr 0 Ω ø 0 Hi 0 Ei 0 ø fu Φ Hi ■ <! 0 Di O ø μ- 03 Ω ø ED ø ø μ- M tr φ 0 0 < HI O μ- 03 ■ : M ø Hi 13 rf ED Hi ø Ω 7s SD Φ Ω rr ø rt 0 φ 13 0 SD Φ 0 03 μ- M rf φ Ω tr > tr K 0 O ED μ- rt rt Ω μ- 3 LQ 0 3 Ω Ω φ' φ ' CO Ω Φ 0 03 N Di Ω μ- 0 0 su M Φ o _^ SD 0 tr M μ- 0 0 0 SD M β SD 0 LQ Ω rt LQ 0 ^ tr μ- 0 O φ ø LQ 00 0 13 μ- φ M M 0 . 3 ø ø ED ^ 0 0 0 0 0 0 CL Φ co 3 ø 0 rt φ O Si rr] 3 13 LQ φ φ ø 13 * ; rt SD CO <! Hi M M O M Φ 13 μ- 0 TJ rt S Φ O 3 tr ø Si CD H SD μ- 3 φ φ ED SD 0 SD 0 0 3 0 O Hi μ- Si 03 03 rt μ- 0 SD M 0 rt 0 00 Ω Φ Φ ϋ 0 Ti rt 0 rt 03 φ Φ Di 00 0 00 ø μ- μ- μ- tr 03 ø 0 ED <j 13 0 "< SD X 0 0 0 rt 0 O SD O LQ ø Φ μ- 0 13 μ- 03 ø LQ φ φ 3 rt φ Φ Hi μ- μ- Hi 00 13 rt rf Hi μ- 03 0 ϋ 0 0 ED 0 ø rt rr φ ø 13 LQ ø 0 0 SD O 0 0 03 ø ø φ Φ rt O 03 μ- μ- 0 SD 03 00 μ- tr Ω LQ M M CO 3 Ω 0 03 rt LQ 0 03 ø $ Φ 0 ø μ- SD 03 3 SD CL 0 O Φ μ- SD Φ O 03 φ φ φ SD 0 tr rt rt 03 μ- ø μ- SD tr Ω 0 su 03 Ω CL ø ø Hi SD ■ <! Hi 13 Di ϋ 0 0 Φ 0 ϋ tr tr μ- rt 03 M μ- Ω 0 M rt ■ <: μ- 03 μ- Ω Φ μ- rt ED tr μ- φ φ < tr rt 7s M M 0 Di CO ϋ tr 03 0 Hi 13 Ω 0 rt tr SD Ω r SD μ- 0 ø rt μ- tr 03 ø Φ 0 03 > < μ- 0 φ - φ φ 0 φ Ω 0 0 μ- Φ Φ ED 0 μ- O rt Ω CL 0 tr ø φ Ω ED SD Φ rt Di 0 CD Φ su tr 0 0 rr TJ Ω μ- Hl Φ SD SD SD <! 0 φ < £D 0 SD O 03 μ- μ- μ- Ω M M CO <! μ- Φ tr ø s μ- 13 fi M rr ϋ rt φ ø 03 2$ 0 0 rt Hi 0 Φ ø ø 0 μ- SD φ SD 3 μ- Φ 0 ø § Ω 0 tr ø 0 03 13 μ- Di μ- 3 Ω 03 LQ Ω μ- 7? rt - CO O ϋ CD rt 0 "d T) O Di Ω Φ 03 rt rt rt μ- M P- 3 Φ SU tr M tr φ φ Si Φ . O M < •xi 0 Di μ- O Ω tr μ- Φ 0 SD φ CL 3 ø 0 0 rt 0 Φ . ϋ rt tr ø 00 μ- o Hi Φ ø 03 ø 0 Φ 0 Si ø μ- CL μ- 0 rt su Hi O CL Si tr Φ M 0 LQ CD ED Ω O 13 CD 3 ø ø • Hι ø O μ- Ω ø SD SD SD φ ^ 0 13 LQ Φ 0 0 φ φ rr $ Φ Hi 0 μ- X rf rt ø CO rt ED 0 ø rt ED Φ Φ D 03 . 13 0 tr μ- ft μ- ø 00 ^ 0 0 tr LQ 0 0 rt μ- 3 Ω $ LQ Ω 0 0 Hi SD rt Ω φ LQ φ rf Φ 13 tr fi ζ 1 0 φ O μ- 3 0 3 Φ μ- μ- r O φ ø rt Hi O rt tr μ- ø LQ ø Φ SD rt tr ø ED μ- 0 Hi LQ rr 3 rt Hι 03 0 0 μ- <! 3 0 ø M 0 0 0 rt Φ μ- 0 SD 03 O 03 ED tr 13 tr rt μ- 0 0 00 μ- tr rt ø rt M s; 3 ø 0 3 <! μ- μ- Ω O 0 Ω rt Ω DO ø ED CL μ- tr rt rt ED rt Φ < SD tr tr ED 03 M SD μ- rt tr M μ- Φ Ω Φ tr tr rt Hi Φ 0 rt φ P SD Φ 03 ~. 0 0 03 tr Ch tr 03 M Φ s 0 Φ 0 rf ø ø 00 CO Φ Ω ø Su Λ Φ O Hi Si SD μ- Φ ø 0 0 ø ø 0 O SD Φ μ- 0 ED 03 Φ rt - ø 0 Φ μ- ED φ ED 0 Hi μ- 3 Hi ED CO μ- Ω ED μ- SD M •> O Di LQ 0 Φ 0 tr M O LQ rt Φ μ- o 03 CL μ- O O rt 0 . 03 Hi SD <! 03 rt ^ rt 0 φ X rt M 03 Φ tr ø ø 3 ø 0 < 0 0 tr SD SD SD Φ μ- μ- tr ø 3 ED μ- M 03 M M Φ Hi φ 0 ø CD 03 rt Φ rt Φ μ- 3 ø 0 Ω φ Si 0 ED Hi 0 0 O ED Ω <J 0 0 SD M tr ø M 13 LQ $ 0 rt M Φ ^ ϋ 0 μ- 0 SD Hi rt Φ ED M M μ- μ- 3 0 03 03 0 ø M 03 SD μ- M Φ rt ø tr tr O • 0 μ- SD rt ED rt Φ <! tr 03 tr LQ Φ Φ rr ø 0 Φ Φ φ CL ø LQ CL to to O O o μ- 13 Ω O 3 μ- CQ rr tr μ- tr 3 13 s 0 3 3 13 3 Ω μ- CD SU 3 TJ rt SD 3 SD s; ø tr μ- 0 o 3 O O Φ ø μ- o 0 tr φ 0 ED 0 ED 0 ø 13 CL SD ø tr 0 O SU Ω tr μ- Φ 0 $ 0 3 M Hi O M O μ- 03 M l_J. O 3 μ- Hi Φ SD l_I. O φ Ei 0 0 Ω μ- ø CO ø Ω ED 0 0 Φ μ- O M Φ i Ω 13 Φ O Ω 3 rr Φ Ω 13 O rr O rf O Ω ø • : 0 ø 0 Ω 0 rf μ- Φ 0 0 Ω 0 tr O Ω 0 Φ ED μ- Ω μ- rt 0 Φ μ- M Ω μ- 0 tr ED 03 rf M CL ■ <! ϋ φ tr rt <! 3 LQ ø Ω ø 0 03 H3 M Ω rt Hι μ- μ- ø μ- ^ tr 0 rt H H rf 3 SD 00 rt ø Φ tr φ SD μ- M Φ 03 M tr 03 tr CD S μ- μ- < tr ø P 7s rf 0 rf tr Φ tr P Φ rt Φ 0 i φ Di rt Ω Φ rt Φ Φ μ- μ- φ .. M O Ω Φ 0 CO ED Φ Φ ϋ su ^-^ Φ rt 3 Φ H- 03 μ- Φ μ- ø μ- ED 03 03 tr 00 03 03 0 0 μ- 3 ^ rr M CO μ- Hi < fi μ- 03 0 H ø Hi ø rt O M μ- ø rr LQ μ- <! 0 03 rt CD 0 φ ^ --^ Φ O Φ ED μ- O Ω - LQ rr SU LQ φ ø ø tr ø O LQ 0 O rt O ø μ- O . ^ ■ : ø M 3 D 0 0 3 D Φ su CO 9r 0 0 S 0 0 0 Hi O Ω SD ø < M 00 SD *<; μ- SD ED — Ω ϋ 3 CD μ- 3 tr ϋ 13 CO rt 03 rt rt μ- SD LQ rt O 0 ED μ- Φ (-3 ED r M CO 3 M Ω rt φ ø O φ ø O ED 0 φ Φ 13 O LQ Ω M tr Φ M 3 ϋ rt TJ tr P Φ 0 3 03 0 μ- tr M CO ø rt H 13 0 03 LQ Φ 0 rt ø *< 0 1 13 Φ SD μ- Φ D. 3 Ω N 0 O O 3 Φ M TJ φ H- CO CD O 0 LQ 00 0 tr rt μ- rt to μ- ED 13 ø ø O ^ ø 13 3 0 Φ O μ- 0 Ω tr SD 0 ^ Ei μ- tr Hi O •> ø 0 13 rt 0 CO μ- μ- M tr 3 g φ LQ tr 0 ED M Ω 00 tl 03 3 ^ Φ 0 SD CD 03 Φ μ- 7? rt Φ tr μ- Φ rt rt 0 SD 0 ) 13 Φ ED ø 0 rt O Ω μ- μ- φ a o tr 03 03 ø 0 SD μ- *< φ rt Φ * ; tr ø 03 03 O CD LQ φ rt 0 Hi 03 ,—, Φ ø M Ω Φ ø CO SD ED ø ø 0 0 Ω μ- Φ rt Φ SD rt 0 ED ^ ι-3 Φ μ- μ- rt S 03 O ^ 3 μ- CL ø φ SD μ- > < M 0 Φ rt μ- tr Φ 0 CO 00 CL LQ ED Ω Φ 3 SD Hi Ω 0 LQ ED Ω 03 rt Ω 0 rt μ- rt 3 3 Φ ø Φ 0 i rt Ω Φ Φ 0 3 > SD 0 *< rt μ- O ø 13 φ • tr rr Φ Φ rt μ- 0 LQ Φ r Φ φ Hi 0 ϋ ^^ 03 0 0 rt tr 03 rt SD rt φ μ- 03 *< ' ø μ- 00 03 ø 03 3 3 M LQ Φ 1 S tr C-J CL 0 Φ Φ M μ- 0 CQ O ED ^ LQ ø rt ^ φ SD M 0 0 CD tr Si su Ω Si CO ø SD . — . < Hi μ- Hi ø CL Ω 03 03 Hi 03 O 0 03 ED 03 13 ø SD CO 0 LQ Φ ø H NJ Φ LQ 0 rf O ED rt rt, rt Hi rt Hi 0 S 0 Φ Φ 3 13 O M 0 rt Hi 3 S ø 0 € 0 tr 3 ø μ- 0 Φ Φ ø O tr SD 0 . Ω 0 rt rt tr 13 SD tr 0 SD μ- 3 μ- CD 0 ED 3 μ- <! Φ 13 rt LQ 0 3 Ω ϋ rt CO μ- 0 M μ- ø μ- CO SD 0 (D O ø ø ø 0 *< rt M rt ED M μ- ED CL rt μ- tr φ M Φ 0 o Hι SD <j O rf 0 0 rt 3 Φ rt ø CD CO μ- 0 tr ø 00 Φ LQ rt SD μ- μ- φ Φ 1 φ Ω 0 μ- M Φ Φ SD M Φ O rt rf LQ t Hi rf 0 X Φ Φ 3 03 <! ϋ tr rt ■ <: Ω — ED rr tr 0 rt μ- LQ M ø Φ φ rf 03 ø 03 φ Φ μ- μ- Ω tr rt rt Ω 0 • M Ω μ- tr ø ø o ø 3 0 SD Ω tr Ω — , 0 rr ø 3 ø ø O φ Φ tr Ω 0 μ- 3 Φ ■• ø φ Ω SD LQ Ω CO 13 O φ ^ - ^ (D s μ- SD rt tr Φ O ø Di 3 03 Φ Φ 3 3 CO Ω rt 0 M ^ rf Ti CO CO M m ø 0 SD O 03 CO SD μ- "8 Ω • ^ M Ti 3 ^ 3 Φ ø Hi φ 03 H SD φ rt μ- 0 M Ω M 0 03 rt rt ø M Φ 0 M 0 ø 0 μ- 03 O μ- SD 13 H3 0 0 ED μ- ø Ω Φ — SD μ- LQ Φ LQ Φ M ≥i rt 0 0 ø rr Φ rr ø 0 00 SD O rf Si 0 3 ø tr ϋ CO 3 μ- tr μ- tr 3 M ^S tr M φ Φ tr Ω tr tr 3 03 φ 0 CL tr Hi 03 ø SD Ω CO 3 3 rt 0 Φ μ- M φ 0 Φ SD 0 φ 0 SD rt Di rt ED Φ SD Ω M rt ED CD M O 0 3 Ω 3 Φ ø M Ω ø 0 rt fi M Ω < M •"< Ω O rt SD Φ 03 μ- SD Ω ø 0 rt φ ED 3 Ω rr SD Φ 03 φ ø • tr Φ rt 0 O SD rt 3 0 rt LQ 03 μ- φ ø O M 0 ø rt 0 M tr SD • Hi 0 SD 13 ø ø Hi ts Si -. 3 O μ- φ 0 CD ED Φ μ- 00 ø μ- M SD 0 φ ø μ> ø SD ø μ- o fu ø fi ø 3 0 SD rt 0 Ti 3 Φ Φ cr ø SD Ω CD ø ϋ ι-3 ø 1 -j LQ Ω Φ 3 rt ^ 13 μ- ø Φ 3 fi M H μ- φ Ω M μ- Ω O . ϋ CD CO D φ rf LQ Φ φ tr rt rr μ- rt ø 0 O 03 tr ED ø 0 03 ^ -, 0 3 tr SD Φ 13 03 μ- 0 oo ø Φ M μ- Ω Φ 00 ø rt H SD ø 13 ED SD Hi * S rt 13 3 0 0 Φ <! SD rt 03 <! μ- SU 0 0 Φ O . 0 O M rr CO ω Φ o SD 3 Di Ω O 0 SD 0 Φ CO tf» Φ 00 rt 3 0 X CL £, 0 M ED μ- μ- rt ø< 0 00 0 tr μ- o tr rt Ω 0 0 13 Φ μ- Hi 03 μ- r μ- 03 Φ ø rt Φ 13 φ rf 0 W 0 Hi 03 Φ » • Hi Φ μ> 03 CO ø ED * ø ø H rt Φ 0 LQ 03 3 tr 0 SD rt μ- 00 φ ϋ Ω H • : φ Ω 03 — M H tr LQ SD SD rt Ω M Ω tr Ω σs 0 μ- rx> 03 rt φ rf M tr Φ ø 00 CO Φ Φ <! Hi rr tr rt φ ■ <: H3 φ Φ M M 0 • φ μ- • Φ μ- tr 3 μ- tr O M M Hi Si Ω 3 03 Φ ø Φ Hi 03 03 to to | . o o μ- Ω μ- ED μ- 03 rt μ- O 13 SD 0 ω Ω ED 13 tr M => SU f d 0 13 3 ø 3 Pd Hi 3 00 H £, 0 O 0 O 3 ^ 3 00 ø ^ tr ø Hi 0 Ω Hi SD O 0 Φ ø μ- ED ϋ ø SD 0 O Φ 0 Φ SD φ μ- tø O Φ rti φ rt 3 rf 13 03 03 SD ø 0 rf M 3 C 13 3 3 • ! SD φ 3 Φ rt 03 . T3 Ω M 3 3 00 CD tr ø 0 O 0 rt rt SD 00 LQ μ- rt ED 3 rt ED μ- 13 LQ Φ 03 tr 13 ø ø rt M μ- M φ TJ rt 13 φ ø 7s 0 φ M Φ rt 0 0 <! tr 0 φ Ω μ- 0 rt ,— ^ rt 0 ϋ φ Φ 0 M O O M to ø O tr μ- 0 φ μ- rt CQ M μ- 3 rt Φ Ω φ SD Φ Ω 0 Φ CL Φ 2! μ- ED 0 ø 0 SD α ϋ 0 ED SD ø Φ ø CD ø ED Φ M ø CO tr tr 03 rt φ Ω 0 Φ 13 ϋ O < 0 μ- Ω 03 rt ø 03 03 0 ^ - ^ 13 03 £U . Φ 0 <! φ μ- 03 μ- 3 μ- rt 03 0 o Φ Ω ø Φ CO φ Φ 0 M H 0 Φ φ rt tr Φ rt φ ^ - ^ ϋ Ω 3 Ω μ- O SD μ- ED SD Φ rt vo ^ 03 ϋ μ- rt Ω ^ 3 O ø O ED Hi £ 0 si φ O Ω 3 0 0 ø rr 0 M μ- O LQ O μ- rt O ø ø 3 a tr 3 ϋ rt ϋ ø < Φ tr ø SD o 13 0 tr ø 0 ø Φ ø Hi ø - U1 3 r] tr Hi φ ED LQ 3 SD Hi ø ø O o * ; Φ 0 μ- 0 M vo Φ M ø ø Di 0 0 rt tr fu o 3 ED μ- 03 LQ 0 ø μ- p O ø Ω rt 03 Ω M VO 0 Si 0 Φ μ- 0 Hi 0 tr Ω LQ tr 0 Ω cn ø Ω 03 μ- μ- SD Φ Ti ø Ω LQ 0 O Φ Φ O tr 03 Φ tr Φ Ω C ø rt Hi SD φ Ω Φ Ω O μ> ø rt 3 03 μ- CO 0 O SD φ 0 M 0 X 0 tr ^ LΠ Φ tr μ- 03 μ- rt M 03 M tr ^ 3 -j Φ 0 D. 3 rr 0 ø Φ M M CD fi O 3 Si μ- 0 0 ED Ti μ- rt vo ø Φ Ω > O rt tr Φ TJ Ω 3 — 0 O ø ED 03 M LQ LQ O O ø 00 :> 0 M ø 0 σs rt 03 ø tr φ μ- ø Hi Ω 0 Φ • 03 Ω 0 ø rt rt 0 O μ- LQ ■ ! 0 rt rt 0 ϋ SU 7s 1 rt 3 rt Φ 3 Hi Φ μ- 0 ø ^ 03 0 0 Ω μ- fD S Hi ø 0 Φ O 0 ^ tr μ- -J Di tr μ- Φ Ω μ- 3 ED 13 M μ- Ω ( -3 03 — 3 0 Φ rt ø 0 μ- SD ι-3 X Φ ED μ- μ- CD ED 0 — μ- Φ 03 3 tr 13 ø ø Ω SD rt Ω ø μ- ør rt — Φ φ tr LQ Ω Ω SD Ti 0 O O μ- Ω Ω ø ø M φ . SD tr SD 0 ø ø rt 0 0 Φ φ ED Φ φ ø LQ rt Φ ^ ø 0 M ø CL Hi ø φ rt Ω SD ED 03 tr tr SD ø Φ SD Φ O £D ED 0 -. M CO 3 rt rt 0 O μ- O SD M SD 13 μ- 0 rt 0 0 Φ SD M 7ϋ ED LQ r 0 rt rt rt Φ 03 tr M Hi ø rt tr SD 00 0 ^ rt 3 rf < Φ tr Ω tr rt CO SD Φ Ω 0 φ 03 03 μ- μ- ED tr tr SD g ED μ- Φ tr μ- Ω tr 0 O μ- μ- SD 3 Ω μ- ED Φ φ μ- 0 Ω rt SD • ! O 0 μ- Ω Hi μ- rt j rt ø rt 03 Φ O 0 SD ^ t Φ ø ø rt 03 0 <! CD CD Ω Φ Φ 0 03 03 μ- ø 0 ø tr Ω SD ø 13 0 Hi 0 0 M rt rt o 0 φ ^ Φ ø 13 LQ Φ 0 0 Ω • < rt 03 03 Ω Ω 0 •xi 0 Φ CO TJ 3 • Φ M Φ -. 13 Ω Ω fi Φ 0 3 0 rt μ- *< 00 Φ Ω Ω Ω Ti rt SD Φ Ω Ti SD Φ 0 ■ ; α LQ 0 rt tr φ Hi tr M N rt 3 Ω SD tr O 0 O LQ rt 0 rt 13 <! ED 0 rt μ> S 3 0 rf tr Φ M Φ * Φ μ- Φ 0 0 ø 13 φ 0 03 ø ≥J μ- $ Φ Φ in tr φ Ω μ- Φ . O O M ED Φ Φ M rt rt Ei rt ø ϋ o O "1 0 TJ 03 rt M SD 7ϋ O & 00 0 SD M rt ι > ø 03 ø 0 SD 0 ø μ- S s; μ- 03 r Ω 3 μ- φ SD μ- SD rt ø μ- 03 0 03 CD μ- Hi μ- O O rt rt μ- rt φ rt tr Φ Ω O μ- tr ED ø Ti 0 μ- 3 rr 0 M μ- SD Φ <! M Hi CO Ω Ω μ- 3 13 ø φ φ *< M SD ø ED 0 rt ED fu SD ø ø Φ 0 s; φ O M vo O SD H SU 0 CO *< •<! 0 ø 3 ø 0 tr Hi 0 M 3 O rt 0 rt Ω M SD o si ø ø Hi rt — 3 0 μ- rt rt 0 0 ø 0 H ED tr Φ SD LQ μ- ED μ- M SD tr M vo φ 3 μ- t Φ μ- — - 3 3 ø Φ Φ M ø 13 H rt 03 s Ω X Hi 0 0 O rt O 0 rt 0 vo ED O 3 ω CD CD O • SD Ω 0 Φ Φ 0 SD tr 13 SD SD O ED ø μ- 0 fi O rt μ- tr μ- Hi 3 — 13 O ø rt ø 0 CD T ) Hi co 0 ϋ Φ tr φ 0 0 3 0 13 13 03 O 03 Φ 0 tr 3 LΠ SD ø ø . O M o O O Φ ø tr μ- co Φ fi μ- Φ 0 Φ 03 13 0 tr ø - * 3 vo <! rt 3 ø 0 0 μ- rt 0 ø SD 0 ED μ- ø ■ ! ϋ ED rt Φ SD Φ M 13 φ ■ <! o 03 CL μ- 0 σ\ Φ SD ED φ 03 tr ø tr ^ 3 03 Hi LQ ø 03 O tr t ø Ω Φ Φ 0 LQ Hi - Φ tr SD ø 0 μ- rt Φ M Φ ED Φ ED O Hi rf rt rr rt Φ 0 rt Ω 13 - 0 0 Hi 0 0 0 ø O « j 03 ø Φ 03 Φ 13 ø rt M Di Ω Ω M tr Φ 0 tr rt ED μ- M 0 13 ED 0 tr Ω μ- rt fi SD — tr μ- ø ^ ø * ! Φ SD Φ *< 3 φ Φ μ- M < SD O rt Φ 0 ED Φ < rt S 0 ø 0 CO μ- Φ 03 τ 13 rt 3 13 0 03 3 00 su tr tr 0 Ω Ω tr 0 φ SD ED Φ O $. LQ ED rt 3 ø LQ rt φ 0 SD Φ O 3 μ- M 3 O rt TJ M Φ > rt Ω rt CL 0 0 fi tr ø M Φ ø ø 0 Φ 0 X CO ED ø O SD Di ^^ ø μ- CD Φ 0 μ- Ω ED Φ rt ED ø μ- rt 3 S SD Di H LQ ϋ 13 μ- rt ø ø ■• μ- ø ø CO 0 μ- 3 0 Φ 0 O μ- Hi ED 0 M Ω rt tr μ- C-l rt 0 μ- 0 ø 03 0 SD Φ 03 0 φ 0 ø SU 03 <! LQ 0 ø 13 ø 0 ø LQ CL SD tr tr Φ 3 μ- Φ Ω Φ Ω ED μ- Φ ø rt ED φ 0 LQ φ 0 μ- 03 Φ O 0 O rt Φ 3 03 ■ : CD < 0 ø 03 ED ^ Φ 03 0 ED LQ O μ- μ- 0 M 0 13 3 rt 0 O £, ø rt rt 03 0 ø 03 φ Hi 03 ø ED φ O rt μ- 0 φ ø ED tr O μ- ϋ Ω Φ CD rt . Hi μ- 03 r < φ 03 SD 7s 0 tr 03 rf O rt μ- C rt < μ- ø φ tr ø tr o Φ μ- φ ø D. Φ Φ Φ 0 03 Ω φ responses is macrophage migration inhibitory factor (MIF) . MIF was originally identified by its ability to prevent the migration of macrophages out of capillary tubes. Since then, the expression of MIF activity has been found at a variety of inflammatory loci, suggesting its role in regulating the function of macrophages in host defense (Science 153, 80-82; J. Exp. Med. 137, 275- 288) . First described as a T-cell cytokine, recently, MIF is identified to be a peptide also released by pituitary cells in response to infection and stress (Nature 365, 756-759; Nature 377, 68-71) . Originally considered to be the target of MIF action, monocytes and macrophages have been found to be a main source of MIF that is released after exposure to bacterial endo- and exotoxins and to cytokines. Once released, MIF induces the expression of proinflammatory mediators by macrophages and activated T cells, thereby strongly promoting inflammatory and immune responses (Nature Medicine 6,164-170). The critical regulatory role of MIF within the immune system is further underscored by the finding that MIF is induced by glucocorticoids and has the unique ability to override the anti-inflammatory and immunosuppressive effects of glucocorticoids on macrophages and T cells. Thus, MIF and glucocorticoids function as a physiological counter- regulatory dyad that controls host inflammatory and immune responses (Proc. Natl. Acad. Sci. USA 93, 7849- 7854) . Anti-MIF antibodies reduce the inflammation in experimental models of glomerulonephritis, arthritis, and allograft rejection, confirming the role of MIF in the regulation of inflammatory responses. Elevated concentrations of MIF have also been detected in alveolar air spaces of patients with the adult respiratory distress syndrome (ARDS) . Recent studies have also shown that MIF is an important mediator of lethal endotoxemia and staphylococcal toxic shock, playing a critical role in the pathogenesis of septic shock. Besides the functions in the immune system, MIF has also other activities. For instance, MIF mRNA and protein are t t o SD φ ED 0 cr 13 3 13 μ- 13 03 Ti Ω Ω *J 3 μ- 3 μ- Ω μ- φ μ- ϋ rt 00 φ 03 ED < rt LQ 0 Ei Φ 0 <! 0 Φ tr 0 SD Φ ø 0 * • < 0 0 0 φ ED 3 ED 3 Φ 00 ø X ø φ μ- μ- 0 ø Ω φ tr 0 0 μ- X μ- . 03 0 0 0 0 Ω φ 0 Φ 0 3 Ω μ- 3 ^ 3 M 0 D. SD ø rt 03 LQ ϋ Ω rt 03 Φ 0 M Hi 13 0 D. 0 Φ LQ μ- μ- CO Di LQ M 13 Φ ø ø ø M Ω μ- 3 SU φ 03 ø O tr μ- 03 £ Φ Hi 0 0 Φ 3 M SD ø Hi Ω 03 0 0 fi Φ 0 Cf ø tr ø 03 tr ø 13 t Ω 0 SD r < Φ Ti rt (0 Φ ϋ ø w SD 0 cr Φ φ Φ φ 0 0 0) SU ø rt Φ Φ . Φ φ — φ M Φ rr O φ M tr ED ED M ø tr μ- 0 CD Φ Ω 0 rt rt Φ CO 03 ø ø 0 3 ø 0 tr 00 M ø . SD Ω Φ ø φ 03 rt 03 Φ ø φ CD 0 φ tr Φ μ- ø 00 rt rt Ω φ Φ Φ Ω Φ ED ED ^ Di Ω ø CD rt ~ SD ϋ φ CD Hi M Φ CO ED 0 φ M Φ 0 0 μ- Φ Φ ^ rt 0 Φ 0 Φ g M 0 ø μ- O H- φ fi Ω φ 0 rt rt fi *< rt ø 0 ø ø 0 CL 0 Ω CL Φ • • 3 0 Ω Hi §; σ ^ tr 0 0 rt 0 0 Ω O Hi ø fi tr μ- μ- 0 rt SD LQ fu tr o Φ Ω 0 ø μ- Φ Φ M D 13 Ti *ϋ Ω 0 μ- Hi φ 3 N rt 0 Ω φ ED μ- ø CD M 0 13 3 su 3 Hi M TJ 0 *< rt 0 φ O ^ M 0 rt ED ø • 3 Φ O 03 Φ i rt ø LQ μ- Hi Di μ- 0 SD CO o 1 μ- SD 0 φ O 03 0 0 - 0 ϋ LQ r O 3 3 rt μ- 0 μ- ø Φ 3 μ- CL 03 M μ- ø φ 3 tr Hi Φ 03 03 tr 0 SD tr ø SD ED Φ μ- O Mt Φ ø tr 13 <1 rt 0 J 03 M cr M tr 0 φ 13 fi Φ ED ED Φ μ- ϋ ø 0 TJ Ti Φ O ■ ! X Cf Hi Hi LQ LQ ø ø 0 0 0 φ M Φ Φ 03 Φ ^ 0 Ω 00 3 tr rt • SD Ω Φ rt rt ø 0 SD 13 0 φ ø ED 0 7s- SD tr Φ SD TJ Φ fi μ- Ω 3 tr SD *< Φ 03 iso LQ μ- φ 3 0 13 0 0 rt 3 0 M Φ μ- Ω Φ M μ- CO 0 ø tr SD M μ- SD tr rt fi H3 Φ — 0 M <! LQ Φ Ω ø fi Φ μ- H φ »> T ø Φ Di Φ φ ED M Φ S *< SD ø ø Φ φ 2 tr 03 M μ- Φ ø Ω M O 03 < id 0 rt μ- 03 SD μ- μ- Ω • rt SD LQ ø μ- μ- 3 ED μ- Φ 0 j§ tr Φ O SD 3 fu tr φ <! TJ CD φ rt μ- CL 03 Ω ø rt M rt 0 Φ rt Ω 03 13 ø 03 ø 0 f τJ ^ SD 0 rt μ- μ- 0 SD SD μ- 03 M μ- μ- O Φ φ • rt •<! ED td rt Φ SD 13 tr M CO rt 3 EU r CO Ω 0 rt 3 Ω ø 0 fi O s > < ø ED ø ø 3 μ- rt 3 X μ- 0 0 μ- ED μ- 03 M rt ø rt 0 ø Φ 3 ; μ- φ 0 H rf 3 cr Ω <1 tr SD Ti 13 3 μ- Ω ø 13 ø SD ED ,— ^ tr s; tr 13 μ- 0 ϋ ø 03 13 μ- id φ < μ- O fu ø Φ SD Φ 0 03 φ Φ 0 μ- rt 0 μ- Ω • 0 CD 0 0 tr φ TJ <! ø μ- 3 tr SD SD X ED O Hi M •<: 0 rt μ- fi μ- Si 03 φ Φ O Ω 0 fi rt = » φ μ- 0 SD M Ω rt φ 03 03 SD ø CD μ- TJ ø ø 0 Φ μ- 0 ED μ- Ti CO ϋ rt ED 3 μ- ø 03 Ω 03 Φ rt ^ Φ O LQ μ- ø ø μ- rt Ω ø 0 0 3 Φ € 0 φ M 3 3 3 μ- tr rt CO Φ 3 M u rt 0 O μ- 03 Φ O tr Φ μ- SD ø Ω 0 tr ø μ- φ t μ- O SD ø rt 03 μ- CD Si 13 M φ tr Hi Ω 3 . SD CD 0 Φ M Ω M M 0 0 rt rt LQ H3 0 ø Hi 0 * M tr rt Ω 3 μ- tr CD SD Hi 0 ^ • 6 Ω 03 03 M μ- 0 S3 ) rt rt tr 0 tr 0 μ- ED ED ED O ø O H 0 Ω Φ 0 μ- rr 0 s 0 0 ø CO Φ N Hi 03 ED Di 0 SD Φ tr ø 0 ED cr cr 0 0 M ø Ω 0 rt ø 0 3 Φ ø H rt 3 0 ø Φ * φ 03 M μ- Φ 0 0 φ μ- ϋ J Ω μ- Ω M SD M " ! Hi μ- 03 LQ 3 CO rt Φ H 0 ø φ Si 3 μ- μ- 03 M rt Ω Ω ED μ- ø Ω O μ- φ Di rr 0 ^ rt ø φ " 0 ED — ^ . ^ LQ * ø 03 ED Ω r μ- ^ M tr ø Φ 0 LQ ø ø μ- Hi 3 Φ rf LQ 03 ø O 0 φ Ω £U Φ 0 0 M 3 rt ^ SD <! $, μ- Φ ED LQ 0 rt φ O 13 CO tr 3 Φ ø rt X tr SD 0 0 φ LQ Φ SD Φ ED Φ ED ø rt ø 03 0 0 O CD O X 0 m tr Φ Ei tr 0 TJ ø 0 03 0 LQ 0 rt 0 0 3 ø 0 ι-3 μ- $ fi SD rt Hi O 13 tr 0 μ- D. ø rt fi 0 0 D- 0 ϋ Φ 03 Φ 0 rt ED ^ 0 tr Ω φ O 0 3 μ- M O Ω 0 > ø 0 φ tr μ- φ ø ED Hi 0 03 0 SD μ- l—l. μ- Φ SD φ φ Hi Ω Hi μ- Φ ø SD Hi ■ <; Φ 13 Φ g M LQ Φ Hι 00 μ- Ω 0 Ω rt (D 0 M Ω 0 μ- ø M 0 Di ^< O ø Hi μ- μ- rt LQ Ω Ω § SU 0 μ- Hi 03 Ω SD i 0 0 μ- 0 SD M 0 ø LQ Ei Φ Φ 0 ø μ- Φ ø rt 3 Φ ø rt u rf M ø Φ μ- 0 Φ μ- ø Si M φ Φ μ- μ- Hi ft 3 M CD ED ø Ω tr 3 CO M Ω M μ- SU ø 0 μ- rt Ti ø LQ 0 Ω rt 03 μ- 3 SD Φ 13 ED rt 03 rf rt φ 0 SD 0 * ! 0 rr 3 Φ 0 ø tr μ- O φ φ Si LQ EU μ- rt Φ 0 0 • < Φ tr Φ rt μ- tr ø rt rr 3 ø μ- SD ø Hi φ co 0 μ- 0 0 SD 0 ED 0 fu CL ED Ω 0 SD 0 Φ μ- φ 0 0 13 0 Cd 0 ^ rt 0 M CO rr CO cr Di rf rt CD rt CO μ- SD ι-3 rt μ- 0 μ- ø 0 ø s; 0 SD 0 tr ■ <: 0 ø μ- 0 SD 03 0 CO ■ ! 03 0 tr Φ Φ SD Φ ø 0 0 * Φ Hι 0 3 Ω • ø 0 SD ^ 0 Hi rt O 3 rt Φ CO rt Φ φ 03 LQ ϋ Φ CL μ- 3 3 Φ SD φ ø rt ^ rt O LQ 3 0 03 CD rt TJ tr M 0 0 M Ω 00 Ω ED ø 03 rt CO ϋ ι-3 3 fD rt tr Φ SD O .. tr Φ μ- Φ μ- φ Hi rt μ- SD CO tr M ø Φ 13 CO Φ tr ^ tr ED rt 0 rt 0 0 3 <! M 0 Si tr Hi ø φ M μ- 03 0 ø Φ rr tr μ- μ- LQ fi -3 O μ- 3 Hi φ Φ Φ <! 0 rt 0 ø ι-3 rt 0 φ Ω O M Φ Φ rt SD rt Φ Ω φ 0 0 0 CL ■ ≤. Ω 03 tr Hi ? 0 ^ ø D. Ω SD M SD tr rt tr Φ M Φ 00 Φ M CD Φ SD 3 3 03 ED M M φ M M cell dysfunction allowed most, if not all, clinical aspects to be potentially explained by a single, unifying process: hypertension through disturbed endothelial control of vascular tone, fluid retention by increased endothelial permeability, and clotting dysfunction resulting from abnormal endothelial expression of procoagulant . Eclampsia can be ascribed to focal cerebral ischemia resulting from vasoconstriction, consistent with the evidence of changes detected by new cerebral imaging techniques. The liver dysfunction intrinsic to the HELLP (hemolysis, elevated liver enzymes, and low platelet count) syndrome could also be attributed to the effects of acute underperfusion. Endothelial cells can be activated in several different ways that are potentially relevant to the origins of pre-eclampsia, and several candidate factors have emerged, including free fatty acids, lipoproteins, oxidized lipoproteins or lipid peroxides, tumor necrosis factor alpha (TNF-a) , fibronectin degradation products, and deported syncytiotrophoblastic microvillous fragments. The source of the factors that lead to endothelial cell dysfunction has not been determined with certainty, but the evidence points to the placenta. In addition to endothelial dysfunction there is substantial published evidence that there is systemic activation of the maternal inflammatory cell responses in pre-eclampsia. Both granulocytes and monocytes are activated. There is increased release of the proinflammatory cytokines TNF-a and its 2 soluble receptors, interleukin 6 (IL-6) and soluble phospholipase A2 (an important mediator of inflammatory reactions) into the circulation. It is well known that the clotting system is abnormally activated, and complement systems are similarly affected. Postmortem observations indicate that in some circumstances the lethal pathologic condition resembles that of the Shwartzmann reaction, a particular form of inflammatory response to endotoxin that has been characterized in experimental animals. Since the above mentioned characteristics of pre- eclampsia resemble that of septic shock, we identified that also NMPF (IR) factor (s) are involved in pre- eclampsia that can worsen septic shock or sepsis. We addressed this by using a high dose LPS animal model for septic shock. Since in the urine of pre-eclamptic patients high levels of nicked hCG b-subunits are present, we also tested these nicked subunits to find out whether they worsen septic shock and so behave like MIF, which is an important mediator of lethal endotoxemia and staphylococcal toxic shock. Material and Methods NMPF purification: To analyse the NMPF from commercial hCG preparations, we used a Shimadzu HPLC system equipped with Alltech macrosphere size exclusion (GPC) column of 60A, 100A or 300A (250 x 4.6 mm and 300 x 7.5 mm). The separation ranges of the columns were 28,000 - 250, 2500 - 350,00 and 1,200,000 - 7,500 Dalton, respectively. External molecular weight standards were employed to calibrate the column elution positions. The markers used were: aprotinin (6,500 Da), cytochrome C (12,400), carbonic anhydrase (29,000), albumin (66,000) and blue dextran (2,000,000). To analyze NMPF, three different hCG preparations were used: NMPF-PG (Pregnyl; Organon; OSS, The Netherlands), NMPF-A (APL; Weyth Ayerst; Philadelphia, USA) and NMPF-PR (Profasi; Serono, Rome, Italy) . As running buffer 50mM ammonium bicarbonate buffer containing ethanol (5%, vol/vol) was used. Sample load volume was 10-50 ml for the 250 x 4.6 mm column and 50- 200 ml for the 300 x 7.5 mm column. The flow rate for the 250 x 4.6 mm and 300 x 7.5 mm columns were 0.5 ml/min for 45 min. and 1-2 ml/min for 45 min, respectively. First trimester pregnancy urine (2 litres) was collected in a bottle from a healthy volunteer and was refrigerated until delivered at the laboratory within 2 days. Upon delivery, 1 gram per litre of sodium azide was added and the pH was adjusted to 7.2-7.4 with sodium hydroxide and allowed to sediment for 1 hour (h) at room temperature (RT) . Approximately, 75% of the supernatant was decanted and the remainder close to the precipitate was centrifuged (10 min at 25,000 rpm at 40°C) to remove sediment and added to the rest of the supernatants . The supernatants were filtered through 0.45 mm in a Minitan (Millipore) transversal filtration set-up. Subsequently, the filtrate (2 litre) was concentrated in an Amicon ultrafiltration set-up equipped with an YM Diopore membrane with a 10 kDa cut-off. The final volume (250 ml) was dialysed against 2 changes of 10 litres of Milli Q water. Next the sample was further concentrated by 10 kDa cut-off in an Amicon ultrafiltration system to a final volume of 3 ml . Mice used in sepsis or septic shock experiments: Female BALB/c mice of 8-12 weeks of age were used for all experiments. The animals were bred in our facility under specific pathogen-free conditions according to the protocols described in the Report of European Laboratory Animal Science Associations (FELASA) Working group on Animal Health (Laboratory Animals 28: 1-24, 1994). Injection protocols: For the endotoxin model, BALB/c mice were injected i.p. with 150-300 μg LPS (E. coli 026:B6; Difco Lab., Detroit, MI, USA). Control groups were treated with PBS i.p. only. To test the effect of NMPF, we treated BALB/c with an optimized dose of 700 IU of different hCG preparations, thereof derived fractions (10-50 mg) or from first trimester pregnancy urine (NMPF- U) for 3 days and then injected with LPS i.p.. In order to determine whether NMPF inhibited shock even after the shock induction, we also treated BALB/c mice with NMPF i.p. after 3, 12, 24 and 36 h of injection with LPS. At different time points semi-quantitative sickness scores and survival rates were noted. Semi-quantitative sickness measurements: Mice were scored for sickness severity using the following measurement scheme : 1 Percolated fur, but no detectable behaviour differences compared to normal mice. 2 Percolated fur, huddle reflex, responds to stimuli (such as tap on cage) , just as active during handling as healthy mouse. 3 Slower response to tap on cage, passive or docile when handled, but still curious when alone in a new setting. 4 Lack of curiosity, little or no response to stimuli, quite immobile. 5 Laboured breathing, inability or slow to self-right after being rolled onto back (moribund, sacrificed) . b-hCG peptide and anti-MIF treatment: Most urinary metabolites of hCG are a nicked form of b-hCG. These forms of b-hCG have peptide bond cleavages within the b- subunit. b48 (VLPALPQWC) is one such peptide which has been shown to be associated with a natural urinary metabolite of hCG. To test the effect of this peptide on septic shock, we injected BALB/c mice with LPS and treated them 2 h later i.p. with b48-peptide (100 mg) . In order to see whether possible breakdown products also have effect on septic shock, we incubated b48-peptide at 37°C for three h before testing the peptide in the septic shock model in BALB/c mice. Previously (WO 99-59617) , we have shown that NMPF (IR) has also anti-diabetic effect. So in order to test whether b48 peptide has anti-diabetic effect, we performed transfer experiments. Total spleen cells were recovered from diabetic NOD mice and stimulated in vitro in RPMI+ supplemented with 10% FBS with coated anti-CD3 (145-2cll; 25 mg/ml) and IL-2 (50 U/ml) along with 300 IU/ml NMPF (Pregnyl) or b48 peptide (20 mg/ml) . Culture flasks were then incubated at 37°C in 5% of C0 2 in air for 48 h. After 48 h cells were twice washed with PBS and 20 x 106 cells were i.p. transferred into an 8-wk-old NOD.scid mouse (n=4) . In vitro/ ex vivo LPS stimulated proliferation of splenocytes: After 48 h of septic shock induction in BALB/c mice by high dose LPS injection, spleen cells (1 x 10 s cells/ml) were recovered and restimulated in vitro with LPS (10 U/ml) in 96-well plates (round bottom) . After 24 hours of culture, the LPS stimulated proliferation of splenocytes was measured via [ 3 H] TdR incorporation during the last 16 hours in culture. In other experiments splenocytes from non-treated BALB/c mice were isolated and in vitro stimulated (1 x 10 s cells/ml) with LPS in the presence or absence of different sources of NMPF (37.5-600 IU/ml) (Pregnyl, Organon; APL, Wyeth Ayerst; Profasi, Serono) , NMPF fractions (10-20 mg/ml) , b-48 peptide or its breakdown products, anti-MIF or combinations of these products each at 10 mg/ml. After 24 hours of culture, the LPS stimulated proliferation of splenocytes was measured. Results NMPF purification: Samples of NMPF from different sources (Pregnyl, APL, Profasi, Pregnancy urine) were applied on the Macroshere GPC 300 A column and eluted with ammonium bicarbonate . Three selected areas were fractionated, NMPF-1 which elutes apparently with molecular weight of >25 kDa, NMPF-2 which elutes apparently with molecular weight between the 25kDa-6kDa, and NMPF-3 which elutes apparently with molecular weight <6kDa (figure 1.). All these fractions were lyophilized and were tested for anti-shock activity (shown elsewhere in this document) . The lower molecular weight fraction (NMPF-3) which elutes after the column volume was further fractionated on ' the Macrosphere GPC 60 A column (figure 2.) . All fractions were lyophilized and were also tested for anti-shock activity. NMPF treatment in LPS-induced septic shock: To determine the effect of high-dose LPS treatment in NMPF treated mice, BALB/c mice (n=6) were injected intraperitoneally with LPS (150 mg/kg) and survival was assessed daily for 5 days. PBS-treated BALB/c mice succumbed to shock from day 1 after high-dose LPS injection, with lower than 10% of mice alive on day 5 (figure 3.) . In contrast, 100% of the mice treated with NMPF from source Pregnyl, or its fractions NMPF-1 or NMPF-3 obtained from GPC 300 A column, were alive on day 5 (P<0.001) (figure 3.), while groups of mice treated with NMPF-2 from source Pregnyl or Dexamethasone (data not shown) demonstrated around 25% of survivors (figure 3) . Not all commercial hCG preparations showed NMPF activity; for example NMPF from source Profasi showed only partial anti-shock activity (around 40% survival) .In addition, variability in NMPF activity between different batches of the same source as well as variability of activity of same batch in time was observed. Treatment of BALB/c mice with APL before or after the shock induction, showed in a number of experiments acceleration of shock and early death. In order to determine whether there are factor (s) present in hCG. preparation that also accelerate shock and inhibit or counteract NMPF activity, we further fractionated NMPF-3 from a pretested active batch (containing anti-shock activity) and a non-active batch from source Pregnyl on GPC 60 A column. Three selected areas were fractionated, NMPF-3.1 which elutes apparently with molecular weight of >2000 Da, NMPF-3.2 which elutes apparently with molecular weight between 2000-300 Da and NMPF-3.3 elutes apparently with molecular weight lower then 300 Da (figure 2.). All fractions were tested for anti-shock activity. Results from these experiments revealed that anti- shock activity in a pretested active batch resided in a fraction NMPF-3.2, while NMPF-3.3 fraction from both (active and non-active) batches accelerated shock (figure 4.) . In order to determine whether NMPF-3.3 inhibits the anti-shock activity of NMPF-3.2, we added NMPF-3.3 into NMPF-3.2 in 10:1 ratio (100:10 mg) and injected the mixture i.p. in mice two hours after LPS injection (n=6) . Data from these experiments showed that in all mice treated with NMPF-3.2 fraction alone, septic shock was inhibited and they had sickness scores lower than 2 ,—. O o o tr CO 3 tr CO ø 1 Ω μ- 3 13 Ω Ti CD 0 LO Φ 13 > u g ED s! CD μ- ø 0 Φ P) _ Φ φ SD 1 tr U ø TJ ø μ- 0 0 ø Φ rr φ • μ- td 0 g 0 φ μ- 0 0 tr ø O φ ED M 0 Ti ) . 0 CQ 0 3 ^ Ω Ω SD Φ M fi μ- CD co rt CQ rf φ co 13 rt 0 0 0 o ø 03 0 0 SD μ- ED rt 0 CD :> 3 ø Φ Ω LQ rt ø 3 rt tr Φ LQ • i μ- 03 3 rt 1 0 M 0 Ω LQ M μ- 0 0 μ- Φ cf 0 ø Ω ø μ- φ rt 0 0 Φ 1 1 O rt tr ø > SD M μ- Φ rt 0 CD Ω 13 μj ^" ø ø ED . — . μ- • <! ø rt M 3 0 ø 0 td ^ CO 03 ø ED Φ T - - rø Ω rt Φ μ- 0 0 Ω Φ ø • 0 Ω 03 O M Φ μ- SD ø SD φ Φ X M ø . tr 0 rr Ω ø SD ■ ω rt CO ø SD O φ 00 tr Ti rt rt 0 Φ LΠ 0 — ' 0 rt M Ω SD fu CO ED co 0 fi ø rt rt μ- Ω ø 2 tr ED rt <1 tr 0 3 fi o 0 0 Φ SD rf Ω rt <! tr rt — - Ω μ- μ- 13 μ- Ω <! $ rt Ω . g 0 ø μ- μ- Φ Φ TJ o cf SU fi rt μ- cf φ tr μ- SD μ- 7? rt 3 <! 0 O φ Φ tr Φ S — - 13 Ω ED rt SD SD rt 0 0 μ- Φ 0 μ- fi 0 <! fi 0 ^ ~. tr Φ Φ 0 3 0 SD , M SD - TJ ? Ω Φ ø 13 rt 0 tr Ω Φ ϋ 03 ø 13 ϋ ø < 0 0 ED ED 03 μ- tr μ- tr Φ ø Φ CD rt 0 0 φ SD Φ 13 SD Ti 0 CO φ ED 0 SD . — , μ- Ω rt rr SD Φ Ω SD 0 ^ - ^ $ Φ φ ϋ tr 3 , rt M ø 1 0 S - 0 CO ø 1 0 LQ rt Φ ø μ- rt Φ rt 0 13 SD μ- tr H ι-3 0 rt CD M f Φ ø" Φ t) M μ- 13 ϋ 13 0 μ- 0 μ- ø ϋ Φ s; Ω tr ω rt ø μ- 5 tr μ- Φ ø Φ dd Φ TJ Si Φ 0 C μ- rt 0 0 0 CQ 0 LQ 0 <! μ- φ SD tr rr CQ Φ ø' M Φ 03 0 Φ ø ω 0 0 Hι tr 0 φ 2 ø 0 φ μ- ø T ø φ Φ P ) ϋ μ- φ ø rt ED SD Ω 0 1 0 3 ϋd Φ Ω μ- φ LQ § CO D. 0 r CD 0 0 2 0 r 00 μ- rt tr Φ μ- rt rt φ fjd Φ 00 tr > 0 ø 0 ø 1 > 0 U ø 1 rt φ cπ ■ <! r Φ ø § φ ø 0 03 μ- rt SD Ω ø 3 \ 00 rt μ- ø 1 rt CL SD 13 13 ^ 'ri 13 μ- H • LQ 1 13 2 0 φ φ tr r tr Ω 0 CD ø Φ 0 Ω 0 μ- M ω Φ 0 rt co 0 1 M CQ 3 • • - — tr rt ø SD id § ø Si SD 0 φ rt ø ED ø M 3 φ *\ CL 03 Ω μ- • -• rt 0 μ» . SD ø SD Ω 1 13 03 0 rr Ω ϋ 0 Φ 0 rt rt 3 ø Ω Φ Φ 0 13 0 CO M — -* ED CL μ- ø rt co id Φ 3 μ- Φ 7? 0 Φ SD μ- 03 M rt 0 ø > 0 rt Φ tr su 0 - 0 3 Ω μ- . 1 TJ ø CL S SD 3 fi $, tr Ω SD ø 3 μ- 0 Φ tr ED 0 rt SD fi SD Φ • ! < DO CO rt 13 SD μ- 0 03 φ TJ μ- 0 φ 3 rt Φ μ- <! 0 T) 0 rt TJ Φ rt Ω Φ rt s; ø CO φ . μ- 0 φ 3 0 rf rt -— ' ø tr rt <! Φ φ ED Ω Φ 3 0 Φ ED 0 Φ 7? ϋ μ- tr 0 0 rr ø SD rv> Ω φ X μ- CL tr μ- rt tr Φ 1 tr Φ Z 0 fi rt Φ C 0 ø 0 φ ϋ 0 μ- 0 0 Φ ø 13 0 LQ 13 Ω 1 tr 3 1 . φ Φ 3 g M 03 ED 0 μ- 03 M 0 ø ø μ- ø SD CD 0 Φ φ rt 2 CD SD Φ oo 2 3 ø Ti Φ SD 2 3 μ- U DO rf 3 ø 13 ^ - ^ φ 1 Si ø Φ 0 tr ^ 0 tr s tr rt 0 Ω 1 Φ φ 0 0 0 03 3 13 M |J μ- μ- M fd ED TJ φ LQ 2 ϋ 0 M μ- . — . Φ 13 0 rt M TJ 13 ø tr O rt 13 TJ Φ Φ 0 fi Ω 0 Φ μ- rt Ω H 0 0 § Ω 3 TJ Ω SD tr £D Φ TJ rt μ- rt M Ω TJ 0 0 tr 0 Φ φ Ω 0 LQ tr rt Φ ED • : 13 2 7s $, Φ μ- rt 1 7? 0 Φ 3 TS μ- ø SD μ- tr 0 1 ED 0 0 *— ** ø ^^ rt 0 0 Φ μ- tso LQ ø M id g φ ø LQ 0 co φ 03 Ti rt 0 μ- ^ co £D rt Ω 0 μ- μ- Ω 0 <! • 0 ϋ I 13 μ- 0 rt 0 Φ SD H- CO μ- 0 0 <! ø φ TJ • Ω μ- ^ 0 $. <! 0 0 ^ φ ED Φ t ED tr co TJ ø φ 03 0 ED CO Ω μ- N μ- D. 0 Φ μ- Φ 0 2 SD DO rt 0 rt CO Φ φ 0 ø rt Ω ø CL SU • 1 (i ~. φ rt rt ø Φ ED Φ 3 ϋ rt fi ED § 0 μ- ø Φ ø 3 Φ rt tr ø Ω Φ rt O ω 0 3 Φ μ- < ø 13 φ ,~ ^ < 03 0 Φ CO μ- SD S3 ) ■ <! rt Ω • Ω μ- μ- Si 2 <! 0 0 ED fi ED 0 $ μ- TJ ϋ Φ S s 3 CO ^^ <! rt r Φ tr O CO rt X ø . g μ- M rt φ 0 μ- fi tr O ^ - ^ σs SD S μ- 3 μ- TJ 13 • Φ Ω μ- ø ø Φ 0 μ- φ — 3 13 rt <! tr 00 Si Hι 03 Φ ø > cf o tr CD ED Ω 03 13 Ω M 0 tr O ø 3 03 0 fi $ • μ- TJ ^ φ SD φ μ- rt ø 13 O o SD 03 0 0 i φ Φ 0 tr μ- μ- - Ω 2. ø tr Ω 1 CL rt SD φ rt μ- , , rø rt 0 M M 1 0 M ED o . . ø ø 13 Φ SD μ- CQ φ CO O 4 0 0 μ- 3 03 <! Ω tr 3 rr ED co rt 0 μ- rt s φ Φ ED Ω X ^ - ^ ø Ω SD μ- rt M rt φ 0 ø T ) Cd 03 tr 00 φ ø rt 0 Ω Ω § CL 0 rt D. Si tr 3 CO ø tr φ μ- 0 ø M M o 0 CQ Φ SD 0 Φ DO Φ ^ Φ tr 13 13 tr ϋ σι - ED Φ μ- 2 φ 1 rt 00 SD Φ o ø H> 0 ø CD Φ fi SD rt 0 0 f SD rt o rr μ- ED φ rt ^ Ti 0 rt 3 ^ ~. 0 cf CO < 0 - 0 rt Φ ED 0 Φ 1 < tr £ SD ø Ω rt ø 13 ø φ tr CO CL Φ 0 <! 2 0 cπ Φ 0 SD 0 Φ CD rr LQ co μ- Φ 0 ° Φ i— I. rt ø φ TJ Φ ED f 0 fD Si Ω 03 § Φ o fi Φ ø 1 ø D. μ- 0 • ø 0 ø Φ μ- Φ Φ SD 1 1 3 rt • • ø rt • : 13 SD Si 13 ϋ 2 0 ! NJ LQ ø 3 Ω 0 Ω < ø < rt O μ- ø su $ f TJ rt Ω SD • CQ ^ £, 0 ø M SD O rr rt Φ C φ 3 . LQ 0 H] Ω μ- φ N 1 Φ TJ 13 μ- 0 •• .. rt M Φ ø Φ DO tr tr Φ 0 cf 03 O O ϋ 3 rt π. rt 3 tr μ- 0 Si ED 0 0 rt Φ CO 0 tr O • — Φ ^r ED 0 0 rt rt 0 • ø Si > to o o 3. SD Ω 2 rt CD 2 φ μ- 0 Ω fi g < rt SD a SD 13 tr rt 13 rt ED 03 3 2 rt tr 0 Ω ø 1 ED s3 Φ O Hi Φ O tr 13 O X ø ED O μ- § μ- tr 0 2 03 Φ ED Hi O 2 0 O 0 tr Φ 3 tr ø O 13 Ω φ Ω α cf M α φ M D 13 tr rt 3 03 13 < Φ fi 13 J rt μ- LQ g Φ Si 0 P J Φ 03 μ- 0 CQ Ω M • φ M ^ Φ • Φ μ- Φ J φ TJ O TJ Ω rt Ω LQ Φ 13 rt Di Ω μ- TJ 03 0 ø 0 φ tr ED CO 0 CO CO Φ 03 ø tr — ' SD fu M CL O μ- tr 0 rt TJ Φ Φ 2 0 ED φ tr φ Φ μ- M SD Ω Ω 0 0 Ω μ- H μ- 0 03 > rt Φ Φ TJ 3 ϋ 0 tr CD Ω 3 rt co 0 M ø φ < TJ μ- cf 0 μ- φ μ- 3 0 rt φ φ 0 < Ω Ω TJ Φ ^ - ^ Φ Φ 13 rt 0 tr J O • ø ø 0 ED ϋ 0 Φ CO Di 0 Φ Di SD Ω i φ Φ sϊ CL ED Φ Φ 0 + ED 2 ø Ω Φ Φ φ TJ CO ø ω μ- μ- Hi rt 0 SD μ- SD 3 Ω Φ ø SD ϋ tr 03 Hi SD M Φ 0 § 00 + C SD 03 0 Ω rt Φ Ω rt 03 ED 3 0 SD 3 tr M 3 cf fi μ- rt Φ rt rt SD 0 Φ 2 13 . S3 03 φ 0 0 Hi s CO 13 ϋ Φ Φ tr μ- CO μ- μ- Φ M μ- 03 Di tr M 0 <J Φ 3 0 CD 0 D g TJ 0 Tl Φ 0 S3 Hi 0 Φ ø i 03 0 ED Ω Hi ø Ω ϋ 00 Ω μ- *< φ Φ 0 Φ Hi Φ 13 • 0 -~^ ø φ φ SD Ei SD Φ S s3 0 φ Φ φ φ Φ 0 rt 13 0 ø ϋ Si rt TJ J w Hi Φ f i. TJ M Ω ø μ- 00 03 ø CL 0 D. SD s; Φ μ- 2 00 td μ- 03 rt SD φ O Ω 2 μ- LQ 13 TJ t CD Φ φ rt Q rt Φ 0 rt 0 g LQ ø ED Φ r TJ Φ M 0 0 Φ ø <l 0 g φ C 0 CQ Φ 0 TJ J *< 13 O rt tr SD 0 1 ■S CO 13 ^ ø φ O M rt μ- 0 Ω tr M TJ rt fu 0 μ- ø φ tr 0 φ 0 > 0 M CD tr O tr TJ M Φ rt tr M 0 ø 0 Ω M Φ Ω ED "" TJ rt rt rt Hi μ- φ rt J TJ 0 M μ- μ- μ- O SD s- Φ ø 0 ø SD μ- 0 μ- SD 03 7s LQ 0 φ 0 φ M 1 μ- ø ,- ^ μ- ø 00 μ- Φ 0 3 Hi M ø Φ 3 ø 0 Ω rt O φ •» 3 μ- 0 TJ μ- Φ 0 TJ Ω Φ SD Ω td 3 tø 0 ø μ- Hi Φ Φ Ω μ- 03 r ø tr ϋ 13 Ω Ω Di SD <! Di o <! fi 0 Ω SD rt > H TJ SD O Ω 0 LQ 00 SD ø 0 O φ TJ rt Φ rt ø " 03 2 S3 cf M μ- CD μ- 0 + 03 r 00 ■ tr 0 1 TJ CQ r 0 ø O μ- ' rt Ω rr SD td Φ M 0 3 0 0 03 P μ- φ rt tr ^ O < tr ø LQ μ- ø rt φ 0 3 03 Ω Φ 03 rt Ti D. ø rt Ω P ) Φ 0 O tr Φ rt tr TJ ø φ Φ . — LQ M rf LQ tr 2 II O * \ rt SD rt 0 o L ø- ϋ ^ tr Di μ- ED 0 rt S 03 CD Ω TJ 03 ø tr 0 μ- ED O Ω Φ Ω Ω ø 0 CO rt > μ- ø 3 0 0 rt tr O TJ φ 7s- Φ > 13 M 2 Ω <i tr rt α ^ ? 3 00 7s Φ D. tr φ J Ω rt TJ Φ O Φ ø 1-3 ED TJ co 0 td 0 § O φ Φ s μ- 3 ED 0 Hi ED O 0 Φ (i 0 0 1 SU 0 tr 0 <! CL X ø 03 tr rt μ- ø EU ø co 0 f 03 oo to CO μ- Ω tr μ- μ- rr Ω Φ μ- M 3 0 ϋ TJ TJ ø φ ø ø Ω 3 φ oo L rt SD 0 Φ Φ Hi to Q rt ^ — . M Φ S3 Φ 3 Φ Φ μ- ø O 0 co 0 rt TJ M ED μ- rt O 3 0 0 Φ M ϋ Φ Ω ED 0 TJ M 03 Di φ Φ Di 0 tr μ- 2 •<! μ- M rt tr μ- ø 03 Φ < ø rt μ- μ- Ti 0 ø LQ M 0 Φ fi Φ td ^ - ^ ø ø Ti 0 Φ ^ CD Hi Φ tr φ ED Φ φ Hi rt tr Hi μ- 00 rt 3 fi M 13 Φ J SD Φ 13 Φ Φ CD TJ SD Φ tr φ fi > i 0 0 s SD o Ω S rr Ti O CO Φ φ ø μ- H < Si rt ^ 0 VJ t 1 rf rt μ- 0 Ti £0 . tr TJ ø ø 0 0 SD φ SD rt 0 0 Ω O Ω 0 tr Ω Φ Φ μ- μ- 03 td DO μ- rr SD O rt 00 TJ 0 S3 SD rt Ω D. ø Hi 0 3 μ- Φ tr fi ED 0 ø 0 0 LQ M SD Di Ω *- ^ . rt cπ O tr M M μ- CQ 00 rr i Di H Ω μ- μ- rt Φ φ 03 Φ Ω II o\° 0 O μ- ED tr rt H rt 03 CD 0 tr Φ SD Di μ» 7? Di 0 μ- ED μ- Φ TJ S LQ 03 μ- su tr SD Φ ■ <! ED Φ Hi M ! 2 ø Hi Φ t μ- "* Φ ED O rt Ω 03 03 φ t M 3 to 03 ED § Φ φ ~— ' ø ■ ED rt tr Φ 0 03 CO 0 tr 0 M tr rf SD r Ω rt μ- tr SD ø φ ø Ω M Φ Λ — 0 Φ ø φ 00 μ- 0 Ω TJ 0 ^ - ^ CL Ω μ- 0 ø 3 rt 0 ø rt SD H 00 SD 03 I 0 SD M 03 03 Ω 7s- Φ Ω 00 <! 03 D. 0 Ω tr 0 Ω TJ ,-, SD 2 O ø Cf 0 Φ 3 μ- 0 TJ Ti Ω M φ φ tr •» O Cf Φ rt φ ø <! Φ Hi rt £g 0 Ω μ- 0 SD CO rt 0 tr SD 7s 03 <! S3 μ- O 0 3 0 ED 13 cf 0 03 μ- M TJ μ- μ- J Φ <! 1 03 M 03 μ- μ- SD Hi ; 0 O φ 03 tr ø Hi 0 S3 CO 3 Φ ω 0 td 0 SD S3 <! Φ Ω LQ O TJ rt μ- SD TJ rt φ tr 3 0 M EU M φ μ- 0 tr rt 0 SD o ϋ CQ SD 0 fu μ> SD 0 1 0 ø tr Ω μ- CL tr 0 μ- 0 rt CO <! Ω ED 03 μ- μ- M rt 0 CD CO cπ M SD 0 ED 0 3 ^ Φ 13 rt TJ -^ Φ 3 3 cf CD Hi o\° rt „ Φ ED tr 0 μ- ø 0 Ω M H Ω 3 fi Φ φ tr μ- Ω Φ M rt "~ CL 7T SD TJ 3 φ. 0 Ti 03 O 0 rt rt 13 Φ ø M CL 3 μ- 0 Hi Φ Ω 0 Φ s rt 0 O r Hi μ- μ- ϋ ED <J O ø H 00 Ω O 03 0 μ- 03 cf 0 rt Φ Φ 0 0 CO SD 00 rt M Φ 13 TJ tr μ- ø M ED tr TJ Ω ø 0 Φ rt co O O μ- 2 Φ • 03 M tr SD 0 M ø rt 1 M μ- μ- S Ω ED ED 13 SD rt fi 0 *< \ 0 03 ^ Di 13 \. μ- cf 0 TJ ø Φ rt μ> Φ 0 Φ m TJ Hi s rt 00 03 φ M SD 0 μ- Φ • T) CTl M M ø φ μ- M <! — tr to SD tr ø Φ 13 tr 0 φ μ- TJ T) ø φ S3 Ω X S3 J φ CL ø Φ μ- Φ • 03 μ- ø φ 0 <! SD SD rt rt rt 03 tr 7s H tr S3 φ SD LQ rt < ED '—' rf LQ ED μ- μ- 0 tr tr SD I Φ φ Φ rt - O 5 0 0 rt J 0 < μ- 3 φ 0 ε3 •* Φ SD 03 • μ- ED rf r Di - Ω X j|3 rt Si μ- Ω O μ- φ tr S3 M M rt rt ø μ- 00 ^ μ > 0 Φ μ- Q* tr rt < tr < Ω ? μ- φ ^ H μ- Φ D 0 M O Φ Ω M Φ tr tr 0 Φ Φ CD M φ 0 M L ø Φ φ 7? M ø 0 Φ ø Ω fi Ω group remained healthy. Mice from all groups were killed at this time. There are many physiological conditions and immune pathologies where adaptive and innate immune systems are involved separately or in combination. For example, it has been shown that in pregnancy the maternal innate immune system is more stimulated, and it has been proposed that type II diabetes mellitus is due to chronic hyperactivation of the innate immune system. Another example is the involvement of the innate immune system in listeriosis. Dysregulation in the adaptive immune system may also lead to immune diseases like systemic or organ- specific autoimmunity, allergy, asthma etc, and the adaptive immune system can also play a role in the maintenance of pregnancy and in the prevention of "allograft" rejection and chronic inflammation, presumably including atherosclerosis and related diseases . As shown in our previous (Immunoregulator; W099- 59617) NMPF (IR) is able to regulate the Thl/Th2 balance in vivo (BALB/c, NOD) and in vitro. In dominant Thl phenotype models like NOD, NMPF (like NMPF-PG and its fractions) amongst others promote the IL-10 and TGF-beta production, which indicates the induction of regulatory cells like Th3 and Tri by NMPF. These regulatory cells may play role in the beneficial effects of NMPF in immune and inflammatory diseases and immune tolerance. While NMPF and several of its fractions are able to inhibit the production of IFN-gamma in vitro and in vivo, this was not observed for NMPF-3 (IR-P3) and recombinant hCG (rhCG) . NMPF-3 (IR-P3) and rhCG separately show no to moderate inhibition of the IFN-gamma production, but the combination of NMPF-3 and rhCG gives a strong inhibition of the IFN-gamma production. This implies the need of NMPF-3 for rhCG for at least its IFN-gamma inhibition capacity in these models, while NPMPF-1 and NMPF-2 alone are capable to inhibit TFN-gamma production. This holds also for the anti-CD3 stimulated spleen cells obtained from in vivo treated NOD mice and for the polarization of to to o o 0 0 O Ω tr Ω O 3 00 Cf μ- SU M ϋ ED Cf TJ TJ ED 0 ED cf cr TJ rt 0 μ- μ- HI rt 3 cf 0 03 μ- S3 ι-3 Hi Φ rt 0 M μ- 0 0 *< tr 03 ø Φ 0 fi tr 0 SD M φ 0 tr tr 0 tr φ ø 3 tr tr fD tr φ Φ ø φ 03 tr 3 O ø S3 0 CD ED fi <! 0 Φ Φ 0 03 03 CL SD φ φ Φ Ω Hi 3 t ø rt Φ CO TJ tr tr Φ TJ Φ TJ 0 Ω SD 0 rt cf 3 φ μ- 0 0 LQ t O μ- rt LQ ø φ Φ ø O Φ 0 TJ rt μ- tr Φ 0 μ- ø SD Di 0 0 Ω Φ O O M ø CD ø 0 μ- 03 Cf TJ 0 SD μ- Ω ø rt ø ø ø 0 μ- tr SD M CL ø 03 0 M CL < 3 Ω ϋ ø CD LQ Cf ^ td SD Ω 0 rt tr rt o SD TJ < rt Φ ^ LQ ø ^ td 0 Ω μ- <! TJ 0 SD ED tr ED CO rt μ- O ø 3 ^ 0 ø Φ SD ED tr cr 0 μ- μ- TJ tr fD ^ 00 rt Φ Φ rf rt tr tr SD f • Φ Ω 3 M rt Cf TJ φ Ω M 00 0 cf Φ Φ Ω ø O 00 Φ M φ CO ø 0 0 SD M <! μ- 03 SD TJ SD tr O 0 0 TJ S3 ^ ED TJ Ω 0 ^ LQ ø ø Di μ- S3 03 tr ED S3 ) X 0 < φ φ ø H M 0 Cf φ 3 Φ rt ø SU 0 0 φ rt 3 rt a TJ μ- φ μ- ø fD 0 Ω M Ω μ- •<; Φ LQ rt ED M 0 Φ SD LQ 00 Φ ■ <: M 0 tr SD μ- 0 3 Ω TJ 3 <! 3 < < fD Ω ø CO Φ ø s- SD 0 *< φ fi 0 0 0 • LQ > CO cf Φ rt ED 0 TJ O fu ø 3 μ- 3 TJ 0 7T cf O M tr 03 μ- ø 3 tr ϋ 0 rt ϋ SD 0 0 μ- 0 φ M μ- TJ 0 03 Φ 0 ED ø ø 0 φ • Φ M 0 0 tr rt O SD SD cf Hi tr 03 0 O SD Hi H3 tr 3 0 0 rt 03 ø rt ø Φ Hi 03 03 Φ ø 0 tr SD ø CD LQ Ω 03 O Φ Ω 0 0 tr M μ- O 0 rr φ ^^ μ- μ- 03 Φ μ- Φ LQ 3 CQ μ- tr Ω 03 s Ω O 0 cf 0 ø μ- ^ Ω Φ μ> φ ø rt SD O H Ω 03 μ- O 0 Φ 0 0 ø 0 Cf φ rt ø Ω rt Ω SD SD μ- O 3 cf ■ ! X 1 Hi tr M SD TJ O O 0 ø 0 fD X 9 1 Hi s3 0 TJ tr μ- *< M 0 < Hi 0 tr 3 SD tr SD 3 Hi Φ Φ 3 0 03 0 ø φ Φ 0 fD 0 M ø rt ED μ- ED < rt 03 0 ED Φ fD ø ø Φ SD 3 Φ 0 Ω ø 0 O ϋ rt tr 03 O Ω M Ω ED rt 0 Ω ø ø SD Φ 0 M cf rt CO ø ø Φ TJ TJ Ei 0 rt φ CL Hi φ CD Ω TJ Hi φ ^ TJ fD tr 3 Cf tr ø rt Ω Q rt 00 O φ tr μ- a, Φ 0 TJ M μ- μ- 3 ø rt ED 0 φ SU 0 Ω M rt ø 3 tr Φ μ- ø Φ Φ tr Ω D. φ 00 3 ø £D Φ EU cf O SD φ M tr Ω 0 0 0 0 rt rt SD Φ φ 0 SD fD Ω <! φ 03 ϋ SD Φ < rt rt Cf 0 Φ 0 rt tr ø μ- Ω SD φ rt μ- <! ø 00 tr μ- fi ø cf rt HI α μ- SD ø Φ rt 3 SD tr O fi Φ ED Φ Φ ø cf rt 0 O Di φ μ- Φ Φ O Hi fD μ- 0 tr H rt CD 0 TJ CL ø Φ i-3 ED ø Φ M ø tr 0 0 fi rt μ- Φ φ 0 CD CL φ 03 ø Φ 0 tr Ω 0 2 DO φ Φ tr tr 03 tr rt Ω Φ M SD rt fi μ- ^ ι-3 SD o 0 03 3 rt CL >< ■ <! § fi CD φ LQ Hi φ Φ φ 3 0 SD ø M μ- ø tr μ- 0 μ- Hi oT O μ- SD ø SD Tl T 0 φ ø 0 0 Hi 0 0 fD fD Cf CL ^ 0 3 tr φ ø 3 0 ø rt td r S3 CD 0 2 03 ø TJ tr 0 ED 3 0 O SD 0 0 φ 0 cr rt 0 Φ 0 3 μ- 03 CD 0 3 ϋ tr 0 Φ tr O 3, Φ Φ ø 0 <! rt 0 0 O SD O Φ Ω Di CL cf 0 tr Φ Hi 0 φ O O rt φ rt ø μ- tr rt Tl S3 CO , — , ø 3 Di 0 φ S 0 ϋ 3 ED M 0 Φ EU Φ ø μ- O ø 0 tr rt 0 ø Ω fD TJ φ TJ H o 0 o CL M 0 μ- ø SD CL 3 S3 φ rt SD 0 Cf Φ μ- rt tr f SD μ- £D t 03 S3 . M O TJ rt 0 ED Ω Φ 0 cf cf Φ μ- ø SD CD cf SD ED μ- μ- ø tr <! SD Φ ø rt ø M μ- M ø 0 0 μ- •- Ω tr tr ø Hi M Cf TJ 0 03 L 0 Di Φ Φ ø φ μ- ø 03 rt μ- f 03 00 ^ Ω rt ø ^ SD Φ μ- ø Φ SD CL Cf ϋ tr μ- ø < Φ CL ø TJ Φ rt μ- 03 O tr P ) Φ tr Φ ^ μ- Φ μ- rt rt ø £D Ω μ- Cf μ- μ- CD μ- 03 ø Φ Hi CO ED μ- M ø tr 3 μ- 03 CD SD rt ø CD ø φ Hi Ω rt cf ø Φ Hi < ø φ 0 Φ 0 φ TJ tr tr 3 SD D. μ- 3 μ- 03 ø - D Φ Ω TJ > ! 03 μ- μ- 0 Φ μ- ø Hi φ μ- LQ SD Hi M cr O Ω M 3 0 SD 03 ø ø 0 LQ SU H 03 ø tr 03 00 0 ø φ O SD - ^ φ ø 03 ED μ- ø ø Ω φ 0 rt 0 ø 0 Ω M rt 0 Φ SD rt O μ- 03 SD μ- ø rt CD 0 μ- Ω cf Φ μ- rt ø 03 03 ø rt S Φ TJ < Cf 0 μ- tr ED ED LQ φ 3 ø ø rt 03 3 Φ 0 φ 3 O O 03 3 φ Ω Φ TJ ED O TJ SD fD μ- 0 rt 7? Φ O 03 CO O 3 φ O Φ 3 Ω 0 3 3 - 3 fi 0 μ- CD 0 rt 00 fD 0 ^ CD 0 < Φ Φ 0 φ Ω μ- cr 0 rt ϋ ø H μ- tr rt ø TJ tr 0 φ 03 φ ø rt μ- •<: rt φ tr TJ 0 S3 Di ^ Ω S3 tr 3 ø ø tr 3 ø SD O fi ø Hi SD μ- TJ M TJ μ- 03 3 03 0 μ- μ- 0 Φ rt SD Φ SD μ- 0 φ Φ 3 SD Ω Φ cf ø 0 φ ED 03 03 0 ED Φ TJ φ 7s- su r ED TJ 0 3 ø rt TJ M Φ 0 03 ^ M 3 0 ø 00 Φ μ- ø 0 Ω Φ 0 0 fD ø ø rt Φ Ω 0 ø 3 Φ 0 M X CD φ CD 3 Φ 3 CO φ 0 M ø tr Si μ- ϋ rt 03 TJ CD fD 03 Φ rt O Φ 3 tr rt C ø 03 0 Φ TJ μ- TJ ED TJ CD < Φ H M Φ M ø μ- 0 TJ 0 rt rt CD 03 Hi ø μ- Φ ø φ rt <! ED 0 03 03 cf 0 cf Φ CD μ- tr 0 03 Φ cf LQ 03 0 tr 0 Ω μ- CO 0 r φ 0 cf φ TJ μ- μ- 03 Φ μ- Φ φ φ ø Cf CL 03 DO M TJ O φ 03 Φ φ tr 0 Hi μ- SD O < rt 0 03 EU 0 00 SD 03 0 LQ 0 03 Φ Φ ^ SD O μ- su ø 03 ø 0 < M S3 Φ 0- μ- M 0 SD 03 0 . ø 0 3 ø 03 Cf 0 ø 3 03 ED CD SD 03 0 Φ fD fi fD 03 03 0 μ- Si SD SD 0 Ω Cf ø Ω 0 3 a 03 3 φ 0 Φ 3 ø M rt 0 M 0 Hi ED Φ Φ Φ ø CD Φ CL S3 tr CL 0 O S3 Φ_ 03 0 SD fD 03 0 0 Φ μ- Φ 0 03 Φ to t o © 0 μ- TJ Ω cπ rt co fD Hi μ- fD μ- TJ Hi μ- Ω tr TJ tr tr ED ø Ω 0 Cf Hi 3 rt 2 0 CD fD TJ LQ μ- S3 μ- 0 ø ø 0 vo tr Ω SD 3 M ø tr SD 3 Φ Φ ø ED ED Ω Φ Φ φ tr 0 O tr O > Ω M 0 ø O ø μ- fi Φ 3 n φ Hi rt Ω 3 03 Φ Ω 3 M rt O M M rr LQ M CD ED M Di Φ Cf 00 0 SD ED 3 Ω ø ø LQ Er 0 μ- rt ø 0 CO ø rt ø M S3 TJ ED ED μ- 0 M TJ cf M ø 0 Ω ED rt rt 03 0 CO φ 0 φ Ω 0 μ- fD ED <! O 0 ^ 0 0 ø 03 Φ O 0 0 < M 0 0 M ø Φ tr Φ Φ 3 0 φ ø Φ > rt SD ø fi Ω μ- 0 μ- 2 CO rt 0 Φ Φ 03 Ω Ω SD fu TJ ø μ- S3 fD ; td M M 3 ED M TJ SD tr ø μ- 0 fD fD rr rt ^ - ^ rf ; rt >< tr ø φ Φ Φ rt rr O 00 Hi μ- Cf ^ M TJ O rt TJ CD SD fD 0 Ω rt μ- TJ μ- •<; CO • ; TJ Φ TJ 00 ø ^ CL Φ O TJ φ ø Φ 03 ^ SD tr M Ω μ- 0 Φ < M ø ^ μ- ø rr 0 — TJ 3 φ — φ Si cf tr 0 0 • ι-3 LQ S3 S3 0 fD Φ ^ Ω O . Φ •<! 0 tr μ- 0 0 fD μ- CO 2 μ- tr 0 Φ 3 ■ ! M rt Φ ED SD Ω φ 03 <! rt C CO 0 fD 0 μ- <! Hi M 0 Hi Ω Ω TJ 3 Hi ED φ cf O fD 1-3 Ω tr ^ 0 *< φ φ Φ 03 ø ø 03 μ- Hi 0 tr Φ μ- μ- fi fD μ- O O J Hi rt LQ S3 0 CD rt tr Φ 03 Φ TJ Φ rt SD M tr Ω Φ tr 03 fi S3 μ- ø 2 7s- Ω CO 0 ø ø TJ φ 0 φ O 0 μ- μ- M 0 ø O O Ω 0 03 ED 0 Φ 03 0 rt μ- rt μ- 3 Φ fD rt φ M 00 0 μ- M φ Ω tr O 03 M 3 μ- 0 Hi 03 cf rt φ Ω Ω TJ s3 0 0 μ- rf μ- 3 Ω TJ Ω O TJ CO D. φ Hi Φ 0 SD 0 ■ ! CO 0 03 φ 3 TJ 0 O μ- 03 O rt 7s- 3 O ø Hi M ø tr 0 3 0 TJ 2 Ω 0 CO 0 SD ø Cf rt φ CD Ω 3 o φ TJ X <! TJ Hi μ- • 0 0 Φ tr ø ø J Φ μ- 3 Ω ^ ~. Ω rt TJ μ- CL Φ rt 0 ED 2 ø 03 X TJ μ- SD 0 <! 0 CD rt tr 0 μ- tr ø CO TJ M 03 03 Φ fD TJ rt ø O μ- 03 03 M 0 0 g ø Φ ED 0 Ω cf 0 03 SD 3 φ Φ tr Ω ED tr Ω 0 Φ μ- • TJ Φ • — 0 fD O 2 Φ ø l-h • μ- M Φ TJ Φ M Φ Φ 00 O rt ED SD Ω 0 μ- Ω Hi ø co 0 S3 03 0 0 ; Hi ED ? Di TJ cf TJ 03 ED fi φ M μ- 0 0 Cf rt Ω rt "*— ' ø ED . co fD ^ O ED Φ rt , . TJ Φ O Φ ø o φ SD ø tr M 03 Ω . 0 0 ^ Hi O TJ Φ μ- φ rr rf 2 ø ^ μ- 03 TJ Ω Hi 0 ϋ rt tr Ω Hi φ SD Φ Φ Cf μ- tr ø tr 0 0 fD TJ 03 μ- 2 J Φ § 0 03 ι-3 Ω M Φ tr 3 Φ cr SD CD rt Ei μ- ø 2 M CD Cf Φ Ω φ Φ ø 0 2 TJ 0 2g TJ tr ø Hi ED CL 0 tr Φ fD μ- Ω TJ EU <! o Φ μ- Cf tr 0 Ω TJ rt CL 0 ø TJ μ- CO TJ 0 Ω μ> M SD SD 3 μ- r φ ø Ω SD <! rt O O 0 μ- rt rt ø 0 φ i fD Ω 0 LQ ø TJ ø Φ Φ 0 — ^ SD 0 Ω TJ Hi ø ø Ω fD O ø ø ϋ rt tr μ- Ei O TJ 0 . Hi μ- fD CO S3 tr TJ co CD 3 ι-3 0 CL rt CD Hi 2 Ω 0 O tr cr 0 CO φ ^ φ fD ø TJ μ- TJ rt 0 SD 03 3 φ μ- co μ- r • 0 TJ tr M O μ- Φ 3J φ ø TJ μ- φ 03 Φ 0 M ø ø φ ø O φ rt ι-3 3 rr tr μ- co M SD to ■ ! 0 0 fu 0 TJ tr φ CL 0 O SD 3 M SD φ 03 0 X TJ μ- tr φ fD rt tr DO μ- Ω — rt 0 0 03 Φ TJ 0 CD fD <j fi fi Hi rt ø f r LQ μ- μ- SD 0 H 03 0 rt CO SD 3 H3 . rt 0 rt μ- LQ φ ø ø ϋ Cf Ω Φ 0 tr ø ø 0 0 CD tr S3 Hi Hi 00 rt tr μ- tr fD tr Cf Hi tr 3 φ Si cf 0 0 rt S3 φ 0 ED su Hi ED fD Φ > ED 0 fD 03 tr tr CO M 03 μ> O φ ED Φ μ- 00 tr μ- μ- tr μ- H ø 3 Hi 0 <! M rt .— ^ 0 0 ø 0 Ω Φ 0 fD tr Φ tr Di <! ø μ- Ω ø M «. tr φ ø ø Φ 03 TJ ø TJ SD Ω Φ SD 3 μ- TJ rt rf 2 CL rt TJ Ω rt 0 (D rt Φ Φ Φ 3 rt fD * 0 LQ LQ tr 2 fu O Ω ^ 3 O 0 0 0 μ- § 03 Φ 0 rt 7? S3 M Ω ø 3 O μ- 0 α φ 3 μ- M 0 t CO 3 ø 0 φ μ- fD TJ X 0 μ- - Ω φ μ- ED ^ 0 μ- ø 0 ø Ω Φ TJ TJ Φ ø LQ Φ O SD μ- SD 0 LQ 3 M TJ H fD ,- . Ω SD i rt 0 Φ φ fD 03 ø CO ø 2 - Hi μ- 0 0 Ω LQ SD Ω 0 ø CO 3 Cf Ω ED 0 3 tr 3 03 S3 0 tr Ω — fD Ω Φ fD 3; Hi 03 φ Φ tr 3 μ- rt CO μ- O > 0 ^ 0 Hi co to TJ - — 03 tr rt Φ 03 rt f μ- rt TJ ι-3 φ LQ LQ ED rt 3 0 03 S3 M 0 rt ϋ M ø 0 M tr μ- 03 tr Ω μ- Φ μ- 0 03 Φ TJ Ω SD 0 0 ø O £D Ω rt φ £D ^ Φ — φ 0 ,~. rt Φ TJ 0 M rt ED tr rt ø <! 3 Φ Ω cf fD fD μ- 0 O M 0 CO TJ H 3 0 Ω φ μ- rt SU O tr μ- SD μ- 03 Ω Ω Hi φ μ- tr 0 0 03 tr TJ M Hi ^ M M Ω 0 SD P. 0 TJ tr φ 7? 3 ø S3 μ- 0 rt 03 TJ 0 Φ fD M ø μ- Ω Ω 3 O 0 fD μ- *< ^ Hi Φ 0 μ- 0 Φ Ω 03 O ø rt LQ £D tr μ- tr O 0 M Ω M LQ SD ^ • ! 03 ø 0 Cf cf Ω ED rt 0 LQ ϋ 03 0 TJ Ω Φ fD rt M tr φ 0 μ- fD O SD ø Ω M rt 03 03 ø ϋ μ- tr ED 03 Hi O O 0 φ 3 co ,—> 0 0 tr SD Φ 03 fi rt fi ø M CD μ- CO O Si Ω μ- 0 Di 0 O φ M O T 3 ED TJ fD fu ~ — S 3 rt fi Φ rt ø 03 μ- SD SD Φ ED 0 fD μ- Cf fD 03 Hi Ω 0 Ω ø μ- 0 0 O M O 0 ø Φ Φ 0 ø TJ O 0 CD M CO 0 i- O 0 rt rt μ- O tr 0 ø 0 Ω φ φ μ- VD fi μ- r tr rf LQ rt Ω . CQ CL Hi rt O μ- ø Hi £D CL φ O < LQ CO ø VO 0 ø tr 2 μ- ED 03 tr μ- Φ Hi 0 Ω φ SD Φ tr ; O 3 ø 0 03 0 0 - M Φ ø ø φ Φ 2 < μ- ≤ O - O rt 0 0 φ 13 0 O SD SU LQ 3 0 ED fD g 13 ø Φ 0 ; Φ 0 Φ 0 0 tr φ 1-3 CD TJ 03 rt 0 Φ M fu 0 0 rr 3 TJ fD < ι-3 TJ 0 rt M Φ ø tr 0 tr cf φ CD μ- M μ- Ω Φ 13 rt φ tr TJ SD SD tr fi μ- cf N3 0 cf ■ <: 7s- ø ■ <! TJ Φ ϋ rt Φ ø Φ O μ- Φ Φ Φ ø N> t © CL μ- rt φ μ- H 3 LQ TJ μ» rr S3 tr Ω 3 M M rr CD Φ Hi Φ 03 μ- O 0 Hi CO 3 g 03 TJ O 00 TJ Hi tr μ- 03 μ- DO ø CO ø Φ M > cπ S3 tr φ ^ 0 ED Φ tr φ X 0 Ω tr 3 Hi CO SD tr μ- 3; tr 0 0 Φ ø 0 ED l-h 0 03 H ι Ω 03 f 0 O μ- rt CD tr Cf Cf fD TJ TJ fD M 0 3 φ Ω 0 X J 0 φ TJ Φ SD Hi Hi 03 3 - tr Cf Ω 0 T Ω fD rt μ- Φ tr cr rt φ Ω fu Ω ø 03 Di cf Ω Φ TJ J M cr TJ Ω μ- φ 0 ø •- φ fD φ 0 α ø tr φ M fD μ- 0 rt 3 T ø 0 0 7? Di Φ fD O μ- SD rt ø 0 0 φ ø μ> 00 Cf 0 • O fu μ- tr μ- 3 M 2 Ω μ- μ- TJ 0 Ω SD 0 L 0 S3 Ω 0 μ- LQ φ 3 03 μ- Φ 3 μ- rt SD ø ED 0 ø Ω rt Φ μ- 3 3 O CD Φ Ti Ω CD O ED 3 . fD Φ SD O 0 03 • ø ,— ^ o SD O SD fβ M Ω M fi Φ Ω • ! CL rt TJ 03 Φ 0 μ- rt SD Φ Ω μ- CO rt cf 0 03 rt 0 SD Ω TJ tSJ M 0 M Φ TJ O CO μ- TJ tr 0 SD Ω rf 00 SD 0 rt rt tr μ- tr μ- m 0 Φ S3 tr 3 0 1 M SD < tr <! 0 fD T μ- LQ SD 0 rr CO . tr 03 0 μ- tr 2 fD 0 0 O rt 03 μ- Ω ED φ φ M rt • SD fD ø 03 ø rt M 0 Ω CO — O Hi ϋ <! 3 rt 0 ι-3 Ω ø μ- μ- • rt Ω 0 0 Φ 0 ø M μ- 3 O O O μ- O T O H M 0 μ- Hi μ- ED J CD tr 7s CO tr ø < Di H rt 0 td Ω Φ ø Φ cf ED ø 0 s rr ED ^ ~. 0 0 O M ED 0 rr ø TJ tr μ- 03 i-3 TJ CO μ> Λ 0 TJ μ- tr 0 Ω 3 TJ CO φ φ M φ Φ LQ LQ ED < Ω tr 03 tr S3 SD tr tr 03 0 ø — * ø O tr O ED Cf M & LQ 3 O <l 03 • SD ^ TJ 0 Ω ED co Ω fD ED μ- tr 0 Φ rt 03 0 μ- fD TJ 0 Ω μ- M 0 Φ 0 φ H CO H P φ O LQ Ω D 0 0 rt Ω <! fD <! rt 0 Ω ø 03 ø ø μ- 0 tr tr tr ø ^ fi ø O 3 0 2 M 0 SD Di 00 Φ 00 μ- co rt DO TJ φ M φ tr 0 7s- Ω ø φ ø rt O M Φ Φ CO S3 tr Ω TJ * CD 0 μ- 0 LQ rt O O μ- ø 03 0 cf tr Ω 03 LQ J μ- tr SD 3 ED SD 00 cf Φ M tr CO tr 2 rt Ω 0 μ- 0 < ED Φ fD O SD ø ED Φ rf 03 Φ ø tr rt M CD ø CD o tr ø 3 fD μ- o 0 § (D μ- tr fD Ω CD φ 0 TJ 0 0 rt ED Ω 3 ø φ CD CL 0 μ- SD Cf fi CO tø Hi Ω fD M ø s- TJ M O 0 rf ϋ fD cf Φ 0 cf μ- ø 03 rr 0 cf Φ CO 00 cπ O K Hi O I 03 TJ tr tr Φ TJ CO ø SD Ω 3 M tr tr ø μ- X ED μ- Ω fD SD Ω tr D cf o fD Ω rt SU Hi J- i tr μ- fi 0 03 ^ ED μ- φ Ω CO fD TJ 3; 0 μ> <! ED M ED rt 0 μ- 0 • μ- tr Ω — 0 fD tr SD 0 7T Ω O rt CD M J rt «« μ- M μ- μ- TJ tr Ω Hi tr fu TJ Φ rt rt φ •- μ- Hi rt • 0 μ- TJ 7s- Φ 0 μ- tr fD TJ μ- to rt Ω 0 ø ø ^ Φ 0 cf CQ 0 tr TJ Ω rt rt tr DO 00 ø 0 tr Φ su TJ tr O o μ- ^ tr μ- 0 0 0 Φ Di 0 n ø φ K LQ 0 Φ 0 φ H 03 φ fD — Φ φ 0 0 2 rt ø SD ø Ω ø co 00 0 SD 3 SD M J cf μ- O cπ 3 fi M 00 O 0 0 1 0 rt SD rt jg μ- φ <! 7? CD • tr SU Ω 03 3 TJ M o tr 03 0 0 £D 03 rt rt φ fD 2 tr φ fu Φ ø TJ O TJ μ- TJ to 0 rt O μ- 0 M LQ φ 3 Φ ø TJ 0 Ω M rt Φ M fD 03 2 03 § 0 Ω ED O TJ ED ø 0 fD S3 Ω μ- 0 03 ø Φ 3 "<! ø SD SD D Φ 0 Di O μ- 0 μ- ^ tr 0 tr 3 TJ o M M rt tr 0 LQ CD Ω tr ED 7s- 0 cf 0 X SD Di TJ 03 M cπ O TJ 7s- ø 0 - M 0 TJ ED TJ 0 ED CD co φ SD CO rt * ; 0 SD Hi M M fD μ- φ — CD cr ι-3 0 φ Ω Ω ^ Ω TJ 3 3 0 O • rt rt ø Φ μ- Di SD 0 μ- 0 0 03 μ- 0 TJ rt • TJ TJ Φ CQ O rt . — . tr 3 Tr rt Hi SD J 0 CO S3 μ- 0 03 < ø Ω 0 ø 0 LQ rf LQ fi O ø 0 φ μ- m rt 2 ø CQ fD H 3 ^^ . 0 SD M 03 Hi M Φ O CD μ- 0 2 rt μ- ø 0 CO μ- H Φ tr Ω ø • Φ Ω 0 Ω 0 TJ Φ μ- 2 φ Ω μ- 0 ^ ) Φ ø ED μ- rt rt § μ- tr 2 rt Ω ø ED 3 cf rt Cf LQ Ω μ- μ- TJ SU μ- fD . 0 ^ fD rt TJ SD 0 0 ø 0 0 ^ TJ <! μ- 3 tr SD Ω 0 Φ 3 fD 0 Ω Hi CO ι-3 ø •« M φ Ω μ- Si TJ rt O 0 Hi Di Ω rt LQ SD TJ μ- LQ TJ μ- M rt rt rt Φ 0 μ- ED μ- ø tr ø Cf tr fD ø TJ 3 0 φ fi O CL O μ- M rt tr TJ 03 ø fD ø • <! 03 0 μ- Ω tr Φ tr TJ CO Ω Φ 0 rt Ω Φ LQ CD μ- 0 2 μ- 0 fD 3 M CO ■ ; φ 1 SD ø rt tr O Ω 03 0 * • 0 α £ Φ 0 rt O rf CO 0 oT 0 φ Hi 3| Hi M 03 O ø CO tr 0 Φ 0 0 TJ ^^ fD to " " ø 0 Ω TJ μ- ø μ- • rt ^— - SD TJ Hi rt TJ Hi Si tr tr TJ co ø Ω CO 0 • Φ ϋ 3 M fu M M μ- Φ 3 TJ Φ DO N fD 03 O DO • 0 03 φ tr TJ φ 0 μ- Φ 0 0 to rt ED 0 μ- ø 0 00 ø rt fD o 0 oo φ M ø — 0 Ω μ- 0 Φ 0 LQ Ω LQ O 3 0 S3 φ tr 03 0 03 CO CL 0 SU 0 7? CO Ω 0 td Hi cπ CL 03 O O 0 • ! 03 φ co φ SD ? tr < 3 ED rt tr SD 0 μ- CO 3 fu O 0 Di D » tr φ SD ^ 0 Hi μ- ø 0 TJ • 0 μ- Φ Φ rt tr μ- 0 0 0 fD M Ω TJ Si ø SD 3 tr rt ø ø M 0 rt ø co rt M ED M ø ED ø ø ø μ- SD M fi LQ 0 0 Ω tr S Ω Hi ø μ- DO μ- μ- Φ tr tr § μ- ø Φ Ω fD Ω O rt φ Φ 0 Hi 0 *• S3 μ- 0 μ- Φ φ 0 fD CL M Φ LQ ø 0 μ- μ- TJ ^ ϋ Ω g SD rt rt μ- 2 0 LQ Si . O ø CL ø Di cr Ω 0 3 * • < 00 tr tr fi 03 σ TJ φ CO μ- EU § 0 μ- μ- s3 £D 0 S3 tr 3; Φ μ- 3 Φ 3 O 0 fD O CO μ- ι-3 μ- o μ- φ Ω 0 TJ rr <! 0 φ M Hi O Ω TJ μ- Ω μ- 0 μ> Φ M Ω tr 3 μ- M Ω O to tr rt 03 rt TJ TJ rt Tj μ- μ- rt ø oo Ω TJ rt ED M ø O φ ^ Ω 3 03 ^ TJ Hi cπ μ- O * Φ 0 rt μ- tr rt 0 tr μ 1 03 ■ ! M ■ ; tr LQ Di tr O rt μ> rr X O fi Φ μ- O φ Hi φ ED > ED 0 03 μ- S3 J Ω ø ^ Ω Φ Ω co μ- 0 0 0 μ- μ- O . ø CO co Hi . ø ø Hi to to O © o fi TJ μ- 3 Hi Hi tr μ- H 2 TJ TJ φ Ω μ- rt 0 3 03 tr tr TJ Hi VO H H 00 C-l td fD μ- ø α 0 TJ fD ø Φ Φ 0 Φ 0 0 Φ ø 0 3 Φ 0 Hi O ø tr fD O 2 0 Ω ED 0 0 co co CO o O ø 0 03 μ- μ- Hi 0 Ω 0 3 TJ Di 0 0 rt TJ TJ Φ Hi Di fD Cf M 3 tr Ω <! O O I VO O - ø fi fi 0 Ω l-h 0 μ- rt 0 rt μ- Φ 3 0 fD tr fD TJ rt TJ Φ tr ø rt 0 Φ TJ 0 φ CL 3 H - •- 0 O Hi 7s- Hi CO TJ Di 0 μ- rr μ- Di 1 Ω fi 1 μ- SD Ω μ- Ω 0 Ω TJ ø fD 0 CO DO 0 Ω σ 0 Φ φ TJ 0 7s CO Di CO 0 rt Ω Ω CL O CL 0 rt ø Φ ≥J fD 0 1 μ- 0 2 Ω TJ C Q H cπ DO DO fD 0 0 0 Di 0 Φ 03 Ω 0 rt Φ 0 tr μ- 0 μ- Φ fD ED CL 3 M M 5 rt φ 3; rt 0 H- - - H Q O M μ- Di 3 φ Ω Φ O O 0 03 0 03 Φ ø 0 su rt co rt μ- rt TJ Φ TJ CD Φ 0 • VO LΠ 1 ø ^ 03 Hi ø μ- D. S3 fD - φ Φ ø μ- μ- 03 μ- TJ TJ 0 03 tr tr TJ LQ Ω 1 DO DO O O 0 rt Hi TJ 0 rt Di φ fD tr α 0 fD H3 O O 0 i 0 μ- Φ Φ O 0 Φ cπ 1 DO Hi M Hi 0 fD μ- 0 Φ tr ø rt Ω Ω Hi ø 0 tr 0 μ- ø O ! ! μ- μ- 03 cf cf ED Hi SU co DO 00 0 M Hi LQ Hi Ω 3 CD S3 CL 0 Ω • rt Ω 0 μ- - fi μ- ø M ø ø S3 SD Ω 0 fD t o , ^ . td LQ ø 3 O o μ- μ- rt φ μ- fD rt co tr S3 μ- fD SD Hi φ cf tr Ω M ^ . cπ μ- •<! μ- tr Φ 0 3 0 rt rt rt Di fD 0 TJ LQ 03 rt rt 2 ED μ- Hi Ω 0 TJ 0 Φ Ω μ- Ω ^ M 00 td 0 D. Ω 0 3 φ φ μ- tr 0 0 M 0 0 3 tr tr CO 3 tr rt Φ Ω ^ 0 0 ø O < Ω 3 ^ . ø Ω H 03 Ω rt 00 rr 0 0 fD • Φ Φ 03 Φ φ tr TJ μ- tr 0 Φ Φ 0 0 μ- ø Ω O Di tr to 03 tr 0 0 Ω tr M 0 0 TJ 0 ø ø 0 TJ rt fD M 3 LQ ϋ ø Φ rr 0 O M C-i O Φ VO ^^ tr ^ 0 μ- φ ^ Φ Φ *< fi 03 Hi fD rt tr Φ 2 S3 fD fD rt Φ Φ ø φ ^ S3 μ- 3 Φ O Ω 3 - ED Hi 0 Ω 0 tr 0 • ø 3 CO O tr μ- 0 Cf fD μ- 03 tr φ ø 3 Ω 0 0 μ- 0 < tr 0 Φ Ω rt rt rt CQ 0 tr ED ø ED TJ . M ø O ED SD 0 ø μ- Ω φ φ ø 0 μ- 03 ø Φ Φ tr μ- 0 fD fD tr S3 S3 SD rt TJ μ- ø TJ rt DO Φ 0 ø rf tr Ω Di Ω H 03 0 M 0 ø rt cπ 0 rr Ω ø rr 0 μ- φ 0 Ω φ Ω μ- 0 rt Φ tr ø φ 0 *<: fD ø tr TJ ED Ω SD fD O ø Φ 0 tr fD Ω Φ M tr ø SD fi rt o 0 03 w fD ED s3 O 00 M TJ Φ φ Φ 0 μ- 0 M M μ> SD Φ 1 ■ <! 0 r TJ 0 0 φ ø SD tr cf 0 μ- fD Hi μ- 0 TJ 03 SD Ω ϋ fD O M Φ Ω ø tr 0 Hi tr rt 0 Φ fD M fi rt Ω 03 rt 0 0 3 0 M fu O LQ H ø O fu Φ μ- *< φ 0 tr μ- ED X CO 03 fD 2 tr rt CD Φ φ μ- 0 φ TJ 0 M Ω 0 Hi ■ ! o cn 0 0 M 03 rt fi tr < rt X fD ED 0 fu 0 Ω 3 Di μ- TJ TJ ø X Φ Φ 03 fU O tr fi -J LΠ Hi ø Φ TJ μ- ø ø μ- tr rt M fi 3 3 rt TJ Φ ED <! M rt O Φ μ- TJ rt Cf 0 Ω td • " o Φ tr D. S fD rt 0 Φ 3 TJ φ 0 μ- TJ 0 ø φ Φ μ- Hi 3 φ rt Φ rt Ω Ω 0 co -. td TJ Hi fD ø fD rt 0 3 φ K TJ μ- M M rt < 1 fD rt 0 Ω fD fD cπ μ- 7s- CL (D Φ fi co 00 0 0 0 Φ 03 Φ Di 03 rt TJ 0 ø φ M tr μ- i i rt μ- tr 0 tr 0 rt CL ø μ- TJ M O •» cπ Ω CL ø fD fD CO μ- M Ω tr ø 1 0 Φ rt ø Ω Ω 03 Ω fi φ Φ O S3 0 0 M Ω oo tr O rt LQ 0 fD ø Hl ; 0 *< Ω rt 0 tr fD ø *< SD 0 3 Ω *< tr Ω M Φ S3 tr φ 0 0 VD 1 03 Ω Φ 3 fi 3 M Φ Hi 0 M Φ 0 Φ 00 Ω SD H rt O • μ- ■ ! σs tr ø φ Ei TJ M μ- 00 oo Cf 0 fi Φ fD CD CO φ 0 M SU 03 SD μ- cπ TJ ø Cf cf TJ TJ Φ Ω 03 0 rt μ- fD fU ø cπ σi Φ μ- 0 tr *< O μ- 0 φ CL rt φ 03 ø tr Φ φ μ- Φ ^ 0 CO 7? o Φ ø tr P ^ Hi 0 0 O DO rt 0 μ- rt Φ D. φ TJ Φ TJ φ φ tr Φ TJ 03 <! fi φ 0 fD O •J Di 0 Φ Hi SD M vo ~.. • O ø rt fD 03 0 ø 0 tr fD 03 - 0 rr rt Φ μ- ED TJ fD ^ - 0 03 1 φ 0 Φ rt td O 00 M fD fu M tr φ Ω ø Φ 0 • 0 Φ μ- rt tr Ω fD M M 03 tO SD 0 SD 0 μ- ø LQ vo Ω Ω 0 D. 0 1 CO 0 00 Φ rt Hi fD TJ ϋ ø Di o -1 *< φ rt 0 O μ- φ O o 0 μ- T rt Φ O fi ■ <: ~. tr ■ <! LQ μ- fi CD O S3 03 φ CO 0 rt H 0 0 Φ M 00 μ- fD 0 7? X Ω <Λ° ϋ Ω D. tr 0 ø O 03 0 ^ r- 0 0 0 C φ 0 μ- 0 03 Ω LQ φ ø <! rt Φ Φ TJ μ- Tr O Φ rt 03 Ω M rt Φ Hi 3 tr tr 0 μ- rQ 3 0 03 M Φ tr 03 Φ . φ μ- φ fD O φ S3 03 0 co DO Φ Ω φ ø 0 φ rt ø tr 0 CO 0 £D μ- φ ø 0 CO 2 O 0 3 0 rt Hi -J μ- ø Φ tr ED μ- cπ VD cf o n ø M ø tr tr σι φ Di tr V, φ ø rt φ 3J tr ø 0 H μ- Φ ø ø 0 ø -. . . M μ> φ rt μ- 0 fD 0 cf 1 0 CD 0 Di M < μ- CL O TJ Ω TJ 3 fi rt Φ TJ TJ Φ Φ O • ø μ- rf φ rt rt tr Φ Ω tr Hi μ- ■ : fu rt o* TJ Ω μ- — φ tr oo rt ø ø SD M Ω rt TJ D 03 tr Φ o φ 0 rt LQ * Ω g M 1 ι-3 ø ø S3 Φ . tr 0 0 7s- fi O -J cπ << -J vo M TJ 0 Di S3 tr μ- φ M 3 Φ tr fD cr μ- Φ D. CL fi Φ LQ cπ cπ 0 -J vo r Φ 0 X tr fD SD φ Φ 0 Φ *• O Φ TJ 03 cr μ- 0 03 rt tr ø 0 0 0 ■ ; Φ ^ 1 μ- rr 0 μ- ! 3 0 SD Di rr ø ø Hi SD TJ — 03 CL tr tr Ω Ω S3 μ- 1 Ω co tr CD i < μ- D- 0 fD μ- 3 < S3 03 oo Φ rt rt ø <! μ> 00 M O cπ O CO Φ μ- fD φ ø fi rt 1 <! SU rt SD ω μ- F tr SD cf CD CO Φ M oo n M co cn 0 μ- tr rt O tr tr Ω φ μ- tr LQ rt TJ 0 ED C cπ ~. LΠ . ~. Φ ø M μ- tr cπ S3 0 0 ø Φ φ DO tr CQ 3 O - oo cπ CO φ O Φ cπ ED φ 0 M CO φ Hi >.. vo • 0 Φ 1 03 φ Φ *< CL ø 92 peptides of bhCG, while the third peak did not give any clear sequence because of the low signal due to several unidentified amino acids. We showed that breakdown products of NMPF-K share activity with NMPF- 3.2. This NMPF-K peptide lies between two beta-core fragments (b6-40 and b55-92) and partially derived from beta-core b55-92 fragment. It is possible that there are also other single and/or double cleavage products of beta-core fragments or of not yet identified beta-core peptides (like Medeiros et . al . showed beta-core faction with a unidentified amino acids) responsible for NMPF activity in hCG preparations and pregnancy urine. Breakdown products of b48-peptide with additional unidentified amino acids from beta-core and/or with additional glycosylation possess among other anti- diabetic and anti-chronic inflammatory activity. In short, the invention provides among others an immunoregulator (immunoregulating peptide) obtainable or derivable from a urinary metabolite of hCG, in particular from (nicked) forms of beta-hCG, or (synthetic) peptide homologues or analogues thereof. These forms of beta-hCG have peptide bond cleavages within the beta-subunit (Birken et al , Endocrinology 133:1390-1397, 1993), and herein it is provided that the breakdown products, especially those from the beta-44 to beta-49 regions provide significant immunoregulatory effects by using the animal model test systems as provided. It was found for example herein in animal experiments as described below that peptides obtainable from hCG react in a septic shock model with strong immunoregulatory effects. EXAMPLE II Materials and Methods Gel permeation: We fractionated commercial hCG preparation (c-hCG, Pregnyl, Organon, Oss, The Netherlands) as follows: we used Shimadzu HPLC system equipped with Alltech macrosphere size exclusion (GPC) 60A column (4.6 mm ID x 250 mm L) in 50mM ammonium bicarbonate buffer. The separation range for this column was 28,000 - 250 Dalton. Sample (20,000 IU CG/ml) load volume was 10-50 ml. The flow rate was 0.3 ml/min for 25 minutes. External molecular weight standards were also employed to calibrate the column elution positions. The markers used were: aprotinin (6,500 Da), cytochrome C (12,400) and carbonic anhydrase (29,000). In addition, the concentrated urine (see urine purification) obtained from Pelicon system was filtered through 0.45 mm filter and 40,000 IU c-hCG (Pregnyl) dissolved in 50 mM ammonium bicarbonate were analysed on Shimadzu HPLC system equipped with Superdex G25 (30 mm ID x 990 mm L) desalted column in 50mM ammonium bicarbonate buffer supplemented with 5% methanol . The separation range for column were 5000 - 1000 Dalton. Sample load volume was 7-10 ml. The flow rate was 3 ml/min for 250 minutes. External molecular weight standards were also employed to calibrate the column elution positions. 100 ml fractions were collected, lyophilised and were further tested for anti-shock activity. Urine purification: First trimester pregnancy urine (2 litres) was collected in a bottle from a healthy volunteer and was refrigerated until delivered at the laboratory within 2 days. Upon delivery, 1 gram per litre of sodium azide was added and the pH was adjusted to 7.2- 7.4 with sodium hydroxide and allowed to sediment for 1- hour (h) at room temperature (RT) . Approximately, 75% of the supernatant was decanted and the remainder close to the precipitate was centrifuged (10 min at 25000 rpm at 4°C) to remove sediment and added to the rest of the supernatants. The supernatant (about 2 litre) was concentrated in a Pellicon ultrafiltration set-up equipped with a Pellicon XL filter (Millipore, cat. No. PXC010C50) with a 5 kDa cut-off. The final volume was 150 ml. Urine from healthy non-pregnant women, and from women in their first trimester pregnancy with autoimmune disease (SLE, Sjogren) were treated with same method as mentioned above. Endotoxin shock model : For the endotoxin model , BALB/c mice were injected i.p. with 8-9 mg/kg LPS (E. coli 026:B6; Difco Lab., Detroit, MI, USA). Control groups (PBS) were treated with PBS i.p. only. To test the effect of NMPF, we treated BALB/c with a dose of 300-700 IU of different hCG preparations (PG23 ; Pregnyl batch no. 235863, PG25; Pregnyl batch no. 255957), with peptides (5 mg/kg) or with different fractions (0.5-1 mg/kg) after two hours of LPS injection. LPS induced proliferation: In order to determine whether treatment of LPS injected BALB/c mice with different fractions, peptides or commercial hCG (c-hCG) alter the proliferative response of spleen cells, we also isolated splenocytes from above mentioned LPS shock experiments. Total spleen cells (1 x IO 6 cells/ml) from treated BALB/c mice were restimulated in RPMI + supplemented with 10% FBS with different concentrations of LPS (5, 10, 20 mcg/ml) in round bottom 96-well plates. Plates were incubated at 37°C in 5% C02 in air for 24hrs. The proliferation was measured via [ 3 H] TdR incorporation by adding 0.5 mCi/well during the last 12 hrs in culture. Flow cytometry: In some experiments, after 48 hours of septic shock induction spleen cells were isolated for flow cytometry analysis. The cell surface markers analysed in these experiments were CD19, CD80, CD40, B220, CD4, F4/80, NK1.1 , DX-5 and CD25. For analysis of these marker FITC or PE conjugated mABs were purchased from BD PharMingen. Shortly, spleen cells (2xl0 5 ) were washed twice with FACS buffer and incubated with mABs according to the manufacturer's instructions. Hereafter, cells were washed and analysed on FACSort flow cytometer (Becton Dickinson) . Based on their forward and side scatter characteristics, live cells were gated and analyzed. Coronary Artery Occlusion (CAO) experiments: NMPF have immunoregulatory effects in chronic inflammatory as well as acute inflammatory mice models. Since certain cytokines like TGF-betal, TNF-alpha, IL-1 and ROS (reactive oxygen species) have been implicated in irreversible myocardial damage produced by prolonged episodes of coronary artery occlusion and reperfusion in vivo that leads to ischaemia and myocardial infarct, we tested the cardio-protective properties of peptides in ad libitum fed male Wistar rats (300 g) . The experiments were performed in accordance with the Guiding principles in the Care and Use of Animals as approved by the Council of the Amcerican Physiological Society and under the regulations of the Animal Care Committee of the Erasmus University Rotterdam. Shortly, rats (n=3) were stabilized for 30 minutes followed by i.v. 1 ml of peptide treatment (0.5 mg/ml) in 10 minutes. Five minutes after completion of treatment, rats were subjected to a 60-min coronary artery occlusion (CAO) . In the last 5 minutes of CAO, rats were again treated over 10 minutes i.v. with 1 ml of peptide (0.5 mg/ml) followed by 120 minutes of reperfusion (IP) . Experimental and surgical procedures are described indetail in Cardiovascular Research 37(1998) 76-81. At the end of each experiment, the coronary artery was re-occluded and was perfused with 10 ml Trypan Blue (0.4%, Sigma Chemical Co.) to stain the normally perfused myocardium dark blue and delineate the nonstained area at risk (AR) . The heart was then quickly excised and cut- into slices ' of 1 mm from apex to base. From each slice, the right ventricle was removed and the left ventricle was divided into the AR and the remaining left ventricle, using micro-surgical scissors. The AR was then incubated for 10 min in 37°C Nitro-Blue-Tetrazolium (Sigma Chemical Co.; 1 mg per 1 ml Sorensen buffer, pH 7.4), which stains vital tissue purple but leaves infarcted tissue unstained. After the infarcted area (IA) was isolated from the noninfarcted area, the different areas of the LV were dried and weighed separately. Infarct size was expressed as percentage of the AR. Control rats were treated with PBS . NOD experiments: We treated NOD mice at the age of 8-10 weeks with PBS (n=3) or peptide 1 (VLPALPQWC), or recombinant hCG (rhCG, Sigma) and rhCG in combination with peptide 1 each with 10-40 meg i.p. for three days. In order to determine the effect of the treatment on Thl polarisation, we isolated CD4 + cells and performed Thl polarisation assays as follows: Purified CD4+ T cells from the spleen were obtained by negative selection due to complement depletion with antibodies specific for B cells, NK cells, monocytes/macrophages and granulocytes . Cells were further purified using magnetic activated cell sorting with a cocktail of biotinylated mAbs against CDllb, B220, CD8 and CD40, followed by incubation with streptavidin-conjugated microbeads (Milteny Biotech, Bergisch Gladbach, Germany) . CD4+ T-cells used for experiments were always 90-95% purified as determined by flow cytometry. For primary stimulation, purified CD4+ T cells were cultured at 1 x 10 s cells/well in flat bottom 96-well plates (Nalge Nunc Int., Naperville, IL, USA), and stimulated with plate-bound anti-CD3 mAb (145-2C11, 25 mg/ml) , anti-CD28, and IL-2 (50 U/ml) . For differentiation of Thl cells, anti-IL-4 mAb (11B11; 10 mg/ml) and IL-12 (10 ng/ml) were added to the cultures. Unprimed cultures contained only anti-CD3, anti-CD28 and IL-2. All doses were optimised in preliminary experiments. After 4 days of culture, the cells were washed 3 times and transferred to new anti-CD3 -coated 96- well plates and restimulated in the presence of IL-2 (50 U/ml) and anti-CD28 (10 mcg/ml) . Forty-eight hours later, supernatants were collected and assayed for IFN-gamma production by ELISA as readout for Thl polarization. Cytokine ELISA: IFN-gamma was detected using monoclonal anti-IFN-gamma antibody (XMG1.2) as the capture antibody and revealed with biotinylated- conjugated rat anti-mouse IFN-gamma monoclonal antibody (R46A2) . ABTS substrate was used for detection. Flat bottom microplates (96-wells, Falcon 3912, Microtest II Flexible Assay Plate, Becton Dickinson, Oxnard, USA) were coated with IFN-gamma specific capture antibodies (XMG1.2 , 5 mg/ml) diluted in PBS and stored at 4°C for 18 hrs. After coating, plates were washed (PBS, 0.1% BSA, 0.05% Tween-20) and blocked with PBS supplemented with 1% BSA at room temperature for 1 hr. After washing, samples and standards were added and incubation was continued for at least 4 hrs at room temperature. Thereafter, plates were washed and biotinylated detection antibodies were added (R46A2, 1 mcg/ml) and incubated overnight at 4°C . After washing, streptavidin-peroxidase (1/1500 diluted, Jackson Immunoresearch, West Grove, PA, USA) was added. After 1 hr, plates were washed and the reaction was visualized using 2,2' -azino-bis-3-ethylbenz-thiazoline-6-sulfonic acid (ABTS, 1 mg/ml, Sigma, St. Louis, MO, USA) . Optical density was measured at 414 nm, using a Titertek Multiscan (Flow Labs, Redwood City, USA) . Peptide synthesis: The peptides were prepared by solid-phase synthesis (Merrifield, .1963) using the fluorenylmethoxycarbonyl (Fmoc) /tert-butyl-based methodology (Atherton, 1985) with 2-chlorotrityl chloride resin (Barlos, 1991) as the solid support. The side-chain of glutamine was protected with a trityl function. The peptides were synthesized manually. Each coupling consisted of the following steps: (i) removal of the alpha-amino Fmoc-protection by piperidine in dimethylformamide (DMF) (ii) coupling of the Fmoc amino acid (3 eq) with diisopropylcarbodiimide (DIC)/1- hydroxybenzotriazole (HOBt) in DMF/N-methylformamide (NMP) (iii) capping of the remaining amino functions with acetic anhydride/diisopropylethylamine (DIEA) in DMF/ MP . Upon completion of the synthesis, the peptide resin was treated with a mixture of trifluoroacetic acid (TFA) /H20/triisopropylsilane (TIS) 95:2.5:2.5. After 30 minutes TIS was added until decouloration. The solution was evaporated in vacuo and the peptide precipitated with diethylether . The crude peptides were dissolved in water N> O o © rt 0 rt fD M <J 0 M 0 3 φ 0 Hi to O O 3 Ω M 13 td CQ S3 fD 00 μ- L ø-I. Φ Ω rt Φ fi μ- TJ . Hi 0 0 Cf S3 0 weeks at alternate day. Control mice were treated with PBS only. Results Gel permeation of urine and commercial hCG preparation: c-hCG (figure 16) and first trimester pregnancy urine were fractionated on HPLC system equipped with GPC 60A column. Three selected areas were fractionated, 60A-fraction 1 (60A-F1) which elutes apparently with molecular weight of >10 kDa, 60A-F2 which elutes apparently with molecular weight between the lOkDa-lkDa, and 60A-F3 which elutes apparently with molecular weight <lkDa. These fractions were tested further for anti-shock activity. In addition, urine from healthy pregnant women in their first trimester pregnancy, urine from women in their first trimester pregnancy with autoimmune disease and urine from healthy non-pregnant women were analysed on superdex G25 column. All 100 ml fractions were also tested for anti-shock activity. Figure 17 and 18 show the chromatograms of c-hCG and urine from healthy pregnant women in their first trimester of pregnancy. Survival curve: To determine the effect of high- dose LPS treatment in c-hCG and urine fractions treated mice, BALB/c mice (n=6) were injected intraperitoneally with LPS (8-9 mg/kg) and survival was assessed daily for 5 days. In our previous patent (W09959617) and in this patent application we have shown that three selected areas were fractionated on GPC 60A column: 60A-F1 which elutes apparently with molecular weight of >10 kDa, 60A- F2 which elutes apparently with molecular weight between the lOkDa-lkDa, and 60A-F3 which elutes apparently with molecular weight <lkDa. All these activities were tested for anti-shock activity and they all had anti-shock activity (presumably the lower molecular weight activity also elutes along with the high molecular weight fractions) . 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H rt Φ rt ø ø CD 0 rt 0 M 0 SD rt rt μ- Ω ED H o O CD Φ Hi ø S3 0 Cf ø S3 Φ SD o rt μ- ti M fi CO μ- 03 0 φ Φ tr O rt Φ tr Ω Φ Ω M 3 Hi Hi D- CO Φ Φ rt 0 SU φ D. ■ <: o tr 0 D. * fD ø tr LQ CD φ 3 μ- fi Φ rt Φ S3 0 3 SD 0 Cf 0 rt μ- o\o fD ø 0 0 M 7T LQ 0 μ- 0 CD SD 0 CD D. μ- fD TJ μ- 0 s μ- SD rt φ S3 0 μ- Φ LQ O cn 0 rt ϋ tr M μ- S3 ø fD M Ω tr fu tr μ- O 0 Hi 0 rt 3 μ- Ω Hi Φ 0 μ- ø fi tr ø 0 < 0 μ- <! ø J φ tr 0 SD rt 0 0 • <: ø 0 φ ø fi 0 Φ tr rt φ rr ϋ rt 3 3 φ rt M Hi μ> X Hi μ- 0 φ 0 fi μ- rt 3 tr 3 Hi rt Ω Di SD LQ tr tr φ Φ Φ φ Ω ■ ! TJ o Hi μ- Hi 0 Hi rt Φ tr 0 3 rt μ- 7? < H Ω 0 ED Φ fD 0 td CO ø 03 Hi Hi Λ σ\ o\° 0 _ø Φ ø μ- LQ Ω μ- μ- 0 φ μ> tr Φ H rt ED 0 ED o M > rt cf ø tr ø fD O o 0 0 03 rt Ω ø M rf 0 0 μ- 0 .. Φ 03 μ- — - μ- 0 rt M μ- rr ø 1 Φ 0 φ 0 Ω fu 0 0 3 φ M tr 00 fD μ- fi cf ø Ω σι tr ø Φ O Ω O cf tr <! tr td CL 0 0 3 Ω Ω O o Hi fD ø ^ Φ ø ø co μ- fi μ- • SD 0 CL ø tr SD ø "<! μ- tr Ω Φ φ ""^. - rt 0 o Ti tr ø rt Ω μ- φ <! 0 μ- ED CL Ω ø fD 0 03 3 ^ Ω Ω Hi Ω 0 S3 μ- 0 μ> μ> rt φ fi • rt Φ ^ Ω TJ μ- Hi < M ι-3 CL 7s- Ω 3 fi Si S3 3 O tr o DO Hi 0 ø O fi — tr fD tr X <! • fD rt i μ- tr μ- rf ø S3 φ ø μ- ø μ- 3 0 cπ 3 ø ø ^ SD φ M φ φ TJ μ- M μ- ø SD Di tr μ- rt f μ- Ω fD SD tr 0 ø ø Hi LQ μ- TJ φ μ- -J 0 rt μ- Hi φ 03 Ω fD 0 ø Ω 03 μ- Ω 0 tr Ω Hi μ- Φ Φ fi μ- fi tr Ω fD 03 0 ø 0 tr o S3 . 3 tr rf rt 03 0 μ- μ- M rt SD Ω 0 rf 0 ^ Ω rt Ω μ- ø fD 1 φ 0 ø Φ Φ fD o\° tr μ- ^ tr Φ φ μ- tr 03 00 μ- M fD ø μ- Φ φ Φ tr fD L < CO *<! fi rt TJ CQ S3 fi μ- σs Ω Φ 0 <! 3 M TJ tr 00 TJ TJ < ED M 0 M μ- μ- rt 0 03 μ- Φ 0 μ- 0 0 M o φ μ- ø φ Φ Φ ø 0 S3 CD • 0 TJ 0 μ- rt ø φ s3 μ- 03 Di cπ CO ø 0 SD rt Hi fD Hi φ > ø rt 0 ø 0 Ω μ- tr φ M Hi rr tr M 0 ^^ φ < φ ø rr • Φ Ω 03 fi 0 tr M 1 fD L Hi 0 μ- rt CD < T rr 0 3 TJ μ- ^ su μ- fD rt 0 φ SD fD 0 Ω 0" Φ Ω Hi CD 03 σs TJ M μ- μ- Φ rt fu μ- φ tr Ω 0 SD φ HI ø φ rt tr φ 03 M μ- H tø 0 0 X "< su μ- 0 0 o co μ- < 0 fD ^ M LQ 3 μ- 7s- ø 0 fi 0 0 0 φ Φ 0 φ 03 3 0 TJ Ω 0 ø 0 > <! μ- 03 rt 0 φ ø fD φ SD ED Hi 13 Di Φ ø φ CQ tr T Ω SD rt CD fD <! rt φ i rt 3 O u 00 ø ø Hi 0 rt fD Ω ω ^ - ^ . fD M μ- O 03 Ω Φ 0 0 0 rt 0 μ- T! 0 ø Φ Hi 0 rt td rt 0 < μ- M rf HI CQ S3 CO ø 0 fi ø 0 rr O μ- Di fD M ϋ μ- rf <! CO Φ 0 fD rt ø μ- 0 > 0 SD Φ 0 CD μ- 0 μ- tr rt r SD Φ 0 ø Ω 0 3 rt μ- fD fD 0 M 0 rf rt 3 Hi μ- ø 1 μ- Ω 0 0 0 0 fD rt rt 0 μ- Φ *< rt 0 0 Cf l_I. rt rt 0 3 ø M rt rt CD μ- tr fD ø td 3 rt - 03 0 Ω 0 tr Ω CL tr 0 0 φ 0 μ- 0 0 ø μ- 03 0 Φ fi - 3 0 μ- M CD "-- ^ 3 μ- Hi rf φ μ- 7s CO cπ Φ μ- TJ fϋ Ω <! . μ- ø 3 tr Φ D. fD φ Hi 03 03 μ- rt Ω ø 0 S3 fD 0 H μ- ED ø tr tr μ- ø 0 CD rr CD μ- ø Φ φ 0 CQ SD * Hi 03 Ω tr ø ø φ 0 0 H 0 rt fD 0 φ ^^ ø φ Φ Cf μ- tr rt Φ 03 Ω μ- cf 3 μ- rt td CD TiΦ 3 β CO CL - ø φ CO 0 Ω Hi 13 LQ 0 o ^ M fi rt 7T ø φ μ- cπ 0 Φ > μ- tr s μ- tr Hi Ei Φ fi S 0 Λ Hi Hi 0 ø Ω M Hi μ- Φ Ω Di Ω • 03 ø tø Ω 0 Φ fD Ω fi Hi SD TJ 0 M H 0 O μ- 0 fD 7s 0 03 0 fD φ Φ rt td 7s- rt 03 ø φ μ- 0 <! 0 fD < H 3 tr fD φ . 0 0 0 O 0 Φ Ω 3 H TJ ø 03 r • 03 0 φ Φ Ω H μ- 0 M Hi o CD 3 Ω O S3 tr O 3 f rf cf μ- S3 0 ø Ω φ rt 0 φ 3 LQ rt 0 Ω 0 M 0 o rt < o\° μ- Φ O CO μ- tr Ω φ Φ 03 tr S3 μ- H3 SD ø 0 μ- 0 fD Φ ø ED μ> rr rt tr φ <! φ φ 0 LQ 3 03 Φ φ 3 tr CD rt 0 ED 0 0 • D Ω — - 0 0 tr S3 3 Φ CO μ- Φ 0 μ- 0 3 Φ φ tr rr 0 0 < fi rt • ø Hi Φ M su rt M fD Ω S3 φ ø CO Φ μ- Ω CO H H μ- μ- M Φ M μ- ^ 0 0 φ φ ø Φ Ω ^ < 0 0 ø rr Φ 0 rr ø s3 Ω 0 φ φ μ- 0 φ tr 00 tr φ ^ φ ø φ 03 ϋ 0 o CD 0 03 ED fD TJ fu SD Φ μ-- SD cf 0 1 3 CD rt DO rt TJ fD φ φ Ω ED rt Φ Hi tr tr ø Φ rt Ω ø CL tr TJ 0 fD Ω tr Φ tr φ CL < X M 0 ø 13 0 0 CL TJ rt Ω CL Φ CQ 03 M 0 Φ Φ 0 3 Φ Ω μ- rt μ- S CD Ω <! rt 0 Φ Φ ø μ- ■ ! + rt M 0 ø tr Ω μ- 0 Φ ø O 3 0 tr 7s Φ rt μ- μ- M Ω ø rt TJ Φ φ 0 tø Φ ø Φ μ- μ- Φ SD ι-3 0 tr D. tr Φ rt μ- Di td 0 3 03 ED 0 13 0 TJ μ- μ- fi Ω 3 CO rt tr Ω μ- 3 Φ Φ 0 0 μ- tj 1 0 μ- CQ μ- Hi 0 CQ cf φ 03 ø SD 3 rt Φ Φ T? ø φ μ- CO rt ED <! φ ø φ Ω O cf 03 SD TJ rt tr rt M 0 Φ CO tr ø 0 • > f rt Φ 0 Di tr rt Φ Hi φ ,— , LQ rt Φ μ- tr ø 0 Φ φ SD μ- rt tr μ- 0 ED tr 0 co Φ Φ μ- ø tr φ 03 Φ X Ω tr μ- tr fD M ø φ 0 TJ D fi Φ tr O μ- 0 CD Di φ μ- TJ TJ CL Ω μ- 0 0 0 Φ LQ_ 03 Φ 3 fD -- — cf Ω CL Φ Di rt 03 CL 0 Φ ED Φ rt ø φ Di 03 TJ ΓT 03 fi •« tr 7s- 0 o 03 Φ μ- TJ μ- Φ 0 rt M μ- Φ fD rt D- cf φ μ- Di φ 0 cf Hi co Di Ω rt 03 LQ μ- ED Φ ø fi 7s rt .0 0 SD μ- μ- 0 Ω μ- μ- S ■ <: φ 0 CL DO 7s O Φ 0 3 0 LQ fi tr Hi CD Hι CL Tr φ ø tr CO X 3 fD rt ø 3 su SD Φ SD SD CD O Φ rt Hi Φ φ ø D μ- ø 03 μ- μ- rt tr tr Φ 03 CD 0 0 0 rt fu tr S3 tr ED S3 φ CO 00 Φ Hi M φ _ Ω fD 0 Φ CD φ Ω rt φ μ- Ω 0 ø Di Φ Ω Φ 0 03 μ- φ Ω CO φ 0 CO 0 *< CO 0 rt Ω μ- rt M φ μ> tr CD S3 ø o Ω <~ ^ ø O Hi 0 • 0 LQ μ- 7s- 13 0 μ- M 0 •> 0 tr 03 TJ <J o 3 o s CD ^ M 0 ø φ <! ø fD <! rt 0 CO μ- rr φ Φ 0 O < ^ g Φ rt 0 TJ SD μ- φ O φ rt μ- SD n 0 Ω M TJ ø φ Di Φ Tl SD TJ < tr Ω μ- 0 Ω rt X Di 0 Φ rt 03 Φ *• 03 O φ DO rr Φ 00 Φ 0 T Hi rt Φ Φ 0 Φ rt ø *i TJ ø φ ^ X 0 Φ μ- ϋ M ~-' rt O M 3 φ 03 μ- φ Ω 0 O μ- TJ oo S3 Φ rt CL 0 rt φ 3 tø 3 φ < S3 0 rt rt Hi 0 Φ - μ- 00 tr tr Φ Ω 0 tr 0 CD CO TJ Φ Hi 0 μ- fu μ- 03 ι-3 0 Cf Φ 0 CO 0. cf td φ ι-3 • CQ 0 0 rt rt 03 3 φ tr tr rt μ- tr 0 ø 3 > tr tø 0 Ω O SD ■ <: Φ tr Hi ø μ- tr 3 •> Hi Ω ø CO TJ tr tø rt Φ 13 Hi H rt μ- rt 3 μ- ø fD Hi Φ 03 φ Φ CO 0 03 M μ- td μ- CQ 0 ø SD μ- ED ø rt < φ fD ø H μ- CO ø Φ LQ 3 rt 03 Φ M μ- < 0 tr CO φ Ω 7s- < T rt H Ω rt CD co Cf tr Ω Φ fu μ- tr fD SD ø Φ fi μ- rt D. SD μ- CD - Tr Φ ø μ- Φ φ tr 0 0 CL rt ø- ϋ tr S3 μ. CD 0 0 ø ø 0 Ω SD M 0 3 TJ M Ω Di Φ Ω μ- 0 <! μ- μ- 0 S3 μ- fi < H φ μ- M 7s- 0 ^ μ- Φ Φ φ s- μ- Di Ω <! Hi μ- rt rt rt ø SD ED DO CO 0 ϋ Ω rt μ- 03 ø φ rt Ω 0 fu tr <i tr tr ^ - ^ 0 - CO Φ fD tr Φ μ- tr rr SD μ- TJ Di SD fD tr M- Φ 0 μ- μ- μ- Hi 3 CO -J 0 su 0 Φ μ- 0 O P > ø rt ø M Hi | Hi M ø ED 03 μ- μ- CD fi ø Di M O fi ø f Φ fD <i φ 0 O < μ- tr tr Ω ø Ω ED φ 0 ø td TJ M M Φ fD fD rt rt μ- μ- 0 CD Φ 03 Ω tr DO ø O S3 3 s. SD CO Φ 0 tr Ω 0 tr ^ tr M ED 0 rt Ω Ω SU Φ Hi 0 rf Ω 0 SD 03 ^ rt CQ μ- Φ μ- μ- 0 φ rt 0 Φ fi CO 0 tr ED S3 CD fD μ- μ- 0 μ- rt rt fi CD O 0 0 M CO μ- -J tr rr Φ 3 rt μ- rt • r O 3 ø < 03 0 ■ : Φ Φ Φ Φ 03 tr ø CO 0 fD 03 μ- μ- rt tr ø μ- CO SD ø M 0 fD CD 0 μ- 0 S3 M φ Ω O tr H Φ CO M ø M > μ- Φ Hi tr rt ED Ω ø φ tr 03 μ- φ 0 o - fD TJ μ- μ- ø 0 Φ 0 rr 7s- cf Ω o rt Hi SD 0 φ o 7s- < 03 cπ 0 Di φ ø M rt 0 CD * 0 CL rt ϋ rt TJ 0 Φ CO tr - — ø fi Φ ■ ; Φ 0 0 fD μ- tr CL tr rr rt CD M 0 • CO S3 cπ 03 Di CO 0 S3 Ω D. Φ μ- Φ O μ- *< S3 μ- CO 03 • <! tr rt rr fi φ H fD rt SD 0" μ- μ- Φ μ- ø μ- rt Φ Di 0 0 tr 0 0 f < ø O O 0 tr 03 fi fi Ω TJ O S 0 rt ø Φ 7s • ø M CD Table 1. Test substance % SURVIVAL IN TIME (HRS) 0 16 40 72 PBS 100 100 67 17 PG23 100 100 100 100 PG25 100 83 83 83 PEPTIDE NO. SEQUENCE 1 VLPALPQWC 100 100 50 17 2 LQGVLPALPQ 100 67 0 0 3 LQG 100 83 20 17 4 LQGV 100 100 100 100 5 GVLPALPQ 100 100 80 17 6 VLPALP 100 100 100 100 7 VLPALPQ 100 83 0 0 8 GVLPALP 100 100 83 67 9 WC 100 100 50 50 11 MTRV 100 100 67 50 12 MTR 100 100 67 50 13 LQGVLPALPQWC 100 100 100 100 14 (CYCLIC) LQGVLPALPQWC 100 83 83 83 Table 2. SEQUENCE ID: anti-shock effect LQGV +++ AQGV +++ LQGA +++ VLPALP +++ ALPALP ++ VAPALP ++ ALPALPQ ++ VLPAAPQ ++ VLPALAQ +++ shock accelerating effect LAGV +++ LQAV +++ VLAALP +++ VLPAAP +++ VLPALA +++ VLPALPQ +++ VLAALPQ +++ VLPALPA +++ In table 2 we see the effect of ALA-replacement (PEPSCAN) in peptide LQGV, VLPALP, VLPALPQ in septic shock experiments. We conclude, that the change in even one amino acid by a neutral amino acid can lead to different activity. So, genomic differences as well as polymorphism in these peptides can regulate the immune response very precise. Derivates of these peptides, for example (but not limited to) by addition of non-classical amino acids or derivatives that are differentially modified during or after synthesis, for example benzylation, amidation, glycosylation, proteolytic cleavage, linkage to an antibody molecule or other cellular ligand etc. could also lead to a better effectiveness of the activity. Since MIF is one of the major inducers of sepsis, we also restimulated spleen cells from Peptide 1 group mice with LPS in vitro and then measured the MIF production. Figure 19 shows that in vivo treatment with LPS increased MIF production as compared to PBS treated mice, while Peptide 1 treatment after the shock induction inhibited MIF production (Figure 19) . No effect on MIF production was found in mice treated with Peptide 1 alone; this shows the specificity of the peptide 1. In addition, LPS restimulated proliferation was also studied in splenocytes from peptide 1 and c-hCG-V (fraction V from c-hCG) treated mice. These data showed that after restimulation with LPS in vi tro, splenocytes from LPS treated mice have a greater capacity to proliferate in vi tro as compared to PBS treated mice (figure 20) . On the other hand, splenocytes from LPS+peptide 1 and LPS+c-hCG- V treated mice showed a much higher capacity to proliferate as compared to the LPS treated control mice (Figure 20) . No differences in LPS induced proliferation was observed in mice treated with PBS, peptide 1 or c- hCG-V alone. Figure 21 shows the effect of restimulation of splenocytes from in vivo treated mice with different to t |_ * . ,_. © © © CO S3 fD 0 S3 LQ 3 TJ rt 03 Φ CD CO μ- n< μ- < S φ fD Ω Hi tr 0 O φ tr 0 Hi Φ TJ 0 ts μ- ø n- tr 03 cr μ- O M TJ Φ 0 Hi TJ M tr Ω <! < μ- SD μ- Ω Ω 0 Φ rr Hi φ cf Φ μ- 0 0 • O Ω P 0 <! α tr TJ Ω μ- CO fu Ω μ- 0 tr φ μ- tr Di tr μ- μ> 0 D. tr Ω cf Ω O Tl μ- SD ø i rt S3 CO rf vo fD M Φ O Φ CD Ω M rt 03 13 0 μ- μ- CO Φ μ- • -• ^ Ω S3 Φ Ω 00 ^ 0 μ- φ CQ O rt co cπ ø Φ Ω Ω tr Φ 7s- 3 Ω tr cf S3 O CL + tr < 03 α φ φ O fu O 0 φ ø fD 0 fD CQ Φ Φ M 0 0 SD μ- Ti 1 0 Ω CD Ω TJ 0 Φ rt CD tr fi fD o φ φ 0 ø φ 0 Ti ■ <! O 0 cf 03 tr CD 0 03 0 fD Ω fi tr 0 Φ Hi rt Hi 0 μ- rt Φ 0 S S3 Ω fD 03 α μ- CD M n0 O M 1 μ- 03 Ω 03 μ- Ω Φ rt μ> TJ tr fD ts O 3 03 μ- 03 3 Φ μ- rt O M φ 3 vo Φ μ- 0 rr tr 3 Φ Φ Hi φ ø SD CD 3 M 03 μ- TJ cf Hi Φ μ- rt TJ Φ TJ M TJ rt Φ TJ CO ø Ω rf 0 L tr rt ø cf 0 rf SD φ φ TJ TJ fD CD 0 φ μ- ø f μ- 0 μ- SD μ- rt TJ fi rt φ 0 μ- tr 0 M CL ■ ! tr S3 rt Φ • • Ω rt Ω μ- rt μ- TJ φ 0 0 M Φ Φ μ- O fD μ- O μ- S3 Ω rt fi Ω Φ 03 su rr ø rt Hi 03 O D ø CL μ- μ- rr 7s- Hi cn Ω CD ø- ^ Φ M tr ø ϊ Φ rt CO D- cr tr Hi fD • — rt TJ fi O O 0 ' S3 D tr tr Φ 0 Φ Φ CO μ- M fD SD S3 Ω S3 Ω μ- 0 *i Ω μ- < Φ ø dd Titr Ti 1 rt O n- Ω -j TJ 03 H- rt Ω ø μ- Φ Ω fi > Ω μ- tr 0 ø 7s- td TJ IQ O Ω rt 0 ø- tø Ω fD tr μ- CQ M f. S3 3 0 μ- ED CO td rt tr Ω tr Hi μ- μ- ø + Φ 0 SD TJ Φ φ Ω 0 φ O rt TJ 0 tr ø tø Φ (D 03 fD SD D Φ fD TJ Ω 3 μ- μ- CQ ED μ- tr CO TJ 0 0 CO M Ω cf φ 03 < Ω rt μ- tr CQ 03 CO O Φ Φ , — . M cf μ- 3 rt μ- 0 rt μ- tr 0 ω tr fi ϋ Ω 03 Φ Ω μ- 0 ED r Hi μ- O μ- Ω LQ O CD 1 • 0 Ω ^ CD ■ <; O ø rt 7s- 0 Hi 03 Φ rt rt tr μ- CD φ 03 CO 0 0 0 tr 0 O tr Ω *. 03 tr SD O rt TJ 03 0 ø Φ 0 03 O <! φ Ω μ- rr O 0 0 Ω 0 M • Hi • ! X J tr s3 φ TJ IQ μ- Ω φ ED μ- Φ Φ TJ - 0 03 Di td φ t. Ω Ti- M fD fD 0 Ω CO fD Φ Ω CQ i. TJ 0 φ ■ <: cf rt 0 0 φ Ω ø S3 TiD. S3 + TJ Φ φ TJ fD fD 03 Φ Φ Ω TJ rt μ- tr Φ μ- tø ø TJ SD Ω M μ- Di CL • <: rt rt μ- 3 μ- nΩ rt 13 Φ rt CO rr Ω Φ 03 rt tr μ- < φ M ts 0 tr CQ CO μ- DO rr Φ fi S3 td Φ Φ Ω μ- ø φ tr Φ 00 & Φ M O μ- > 03 rt rt μ- fD TJ Ω μ- Φ 03 0 Φ rt Hi rt tø 0 03 < 03 ø tr CO φ O 0 tr 0 0 tr tr td Hi rt tr • 0 μ- Φ TJ 0 ø H 0 fD fD \ 0 tr 0 rt fi rt rr - s3 O Cf cf rt Ω O Φ Ω *i Φ 0 n- 0 0 03 Hi μ- tr 3 ø Ti¬ H- Hi 0 0 Cb O Hi g ø cf Φ 3 <Q HI *< Φ M rt LQ tr μ- μ- tr n¬ Φ Ω tr Φ Ω ø ED ts ø Ω Q * 1 t3 su φ ø α> rf φ oo rt fi 0 o t o cf tø tr M rt SD 3 M M ISJ tr Hi TJ n- SD α SD σ SD 3 0 fD Ω f S3 S S3 3 -J TJ O 03 0 Ω Si tr W Ω 0 tr fi O 0 0 vo μ- 0 φ ø 0 * Ω X 0 μ- φ CD φ Ω fD Ω μ- φ ^—^ O tr Φ Hi 0 Φ Φ Ω Ω Φ fi M Ω Ω co O ED TJ CL fi rt ϋ LQ 03 M rt CO cf rt 3 03 00 TJ SD 0 μ- μ- Φ μ- μ- fD Ω r 0 cπ μ- cπ tr 0 S3 M μ- μ- tr 1 ^ • ^ μ- Φ rt SD TJ Ω øι Φ < Hi TJ rt Ω Hi Hι tr Ω rt μ- Ω ι-3 <! td rt M Φ 03 < Hi <! ø Hi rt ø μ- Ω fD rt K Ω ι-3 Φ ø μ- 0 φ φ ø 1 rt μ- D. φ tr £3 μ- 3 rr M n- O μ- tr ED μ- μ- <J Ω rt 0 μ- φ D. tr 0 Φ 0 M 0 0 K μ- O Φ Ω Ω ^ rt K Ω tr 03 M 3 rt 0 rt 13 0 iQ < Φ μ- φ < ø TJ 0 φ fD CO ø fD fD SD t <! ø CO 03 Ω Φ *< φ φ fD • ! 0 μ- CQ Φ C Φ Di 03 < D. ED Φ rt 03 03 Φ 0 CO CO S3 μ- μ- M Ω Ω M 03 fD 0 fi φ 0 tr ED rt Ω 0 0 φ Φ ø 0 φ Φ rt rt Ω H LQ tr M Φ Ω Φ M Ω 0 CO 7s- ^ . 03 SD 3 Φ Ω μ- 0 rt rt φ Φ 0 O Ω Hi S3 ^ ^ 0 μ- CO M O M 00 O LQ φ Hi fD ø fD cα Φ ø Ω Φ O 00 TJ cf D. fD Φ φ SU SD Ω tr fD O M 0 M - ø LQ CD 0 μ- Hi SD fi 0 M Tifi cf ED Ω TJ μ- Ω Ω 70 Ω O M fu Ω 03 0 CD 0 φ tr "— ' LQ Cf 03 7s- CO M rt rt td 0 ø tr rt rt 0 Φ Q rr rt •ή Ω - M Ω O Φ - μ- φ 03 o 0 Φ TJ Φ Φ CD tr nΩ tr CO 0 0 SD SD μ- Hi TJ tr μ- μ- M μ- μ- cf 3 ^ - ^ M ø M rt Ω S3 0 0 Ω Φ 0 Φ ts α φ CO ø < < rt rt < <! 0 IQ < φ 0 μ- TJ fD SD S3 Ω fD 7s fD Φ O TJ CO tr φ o Φ 03 n- tr μ- n- μ- Ω C LQ <! fD Ω rf tr 0 rt r 03 rt 3 r Φ σs μ- SD n- + TJ rt tr rt Ω Di Hi rr rt 0 Ω μ- 0 rt Φ n- Φ Φ tr fD W ø TJ μ- X ^-^ rt Ω tr td TJ tr tr 0 *< Ω Φ 0 * ^ Ω Φ O σs rt rt Φ μ- 03 M SD fi fD Ω O -J Φ SD CL TJ • tr rt μ- ι-3 CQ O ED Ω S3 fD Φ 0 tr ^ < φ CD rt Ω tr — * fD 0 Φ Φ μ- rt + 03 rt Ω n- fD h-> Ω S3 M t M SD 0 •« rt SD S3 Φ S3 Φ CD rt φ ø H CO <! O Ω tø μ- rr ø M ^ rt μ- S3 M vo CL 0 o o rt μ- rt CL μ- rt M Φ 3 Di S3 03 0 tr SD ø Φ 13 rt rr tr tr Di CO μ- rt tr CD CL 0 μ- rt tr rr tr Φ 0 0 Φ μ- 03 0 rt < M CQ μ- tr μ- SD ø 0 to O tr μ- 03 tr LQ tr 10 O tr Φ 0 tr Φ 0 <! ø rt rt μ- SD Ω μ- M < Φ 0 rt Ω P M fD tr μ- M tr Ω TJ ø 0 fD φ μ- rt O tr O fi 7s- O fD CD Cf φ ^ SD Φ fi TJ φ 0 0 ø 0 Ω CQ μ- CO rt 03 rt CL ø ø D. ø Ω 0 Ω rt μ- Φ Ω Φ fi s3 D. S3 Ω + fu ø φ T tr Φ μ- Ω S3 TJ 03 μ- fu rt . — ^ Φ ED Si rt tr tr CL - TJ ø 03 Is tr TJ 0 Ω TJ Φ Φ TJ ø S3 0 μ- t ) φ S3 rt Ω O μ- Hi fD 0 μ- μ- Φ ^ tr rt O μ- rt 3 j μ- cd ϋ 0 rt 0 rt LQ μ- φ rt CQ TJ fD μ- Ω Hi <J μ- Cf fi 03 < 03 ø CTι Ω μ- 0 rt O O TJ ø CQ φ μ- CL μ- rt fu tr + rt 03 O Φ μ- id Φ cr n- Φ tr 0 Ω Di φ Di tr M • CL — - 0 SD Ω fD φ Ω fD tr CO tø μ- ø M td rt Si TJ ø rt Ω rt SD Φ Hi ø SD tø Φ 03 . ø 03 Ω fD Ω φ 03 13 Ω O Φ K) μ- 0 Φ 0 ^ TJ Ω 0 < Hi Ω rt K Ω S! Φ CO rt Ω 03 rt CD Si tr CQ tr 0 CO φ Φ LQ \ tr Φ CD CL H Φ Φ 0 Φ rt t CL tr μ- rt tr μ- φ 0 CO CD Di SD o 03 0 oo fD TJ μ- tr ,— ^ Ω tr 0 M O Φ o <i μ- 0 <! TJ ø Ω LQ tr Φ Φ Cf . DO O o cf ø rt rt 0 Hi Hi rt CL Ω Φ fD CL ø 0 Ω fD < Ω μ- rt ø 7? 0 O 0 Ω μ- - σs 0 tr ϋ μ- D S3 0 F- t O Ω Ω 0 Φ SU 0 Ti 1 cf fD Tirt μ- O Ω <J 0 0 ≥! - — TJ TJ Φ Di Φ fD ua - $ CD Φ rt 0 3 Φ rt > Ω LT fD 0 T Φ Φ LQ Tl O CD O cr Φ M Φ Ω a ED φ fD T S Φ tø Hi Q" SD fi μ- nΦ Ω TJ ϋ fu Φ S . CD tr tr 03 Hi Hi rt ø Φ 03 i 0 rt Φ 0 M φ Ω 0 ts ^ -, CO ø Ω - μ- D SD fi φ μ- μ- Φ Hi μ- (D - fi CL O μ- 3 3 0 Ω Ω 0 tr Hi tr Φ ø fD φ Ω oo μ- 0 S3 rt ø ■ <! fD φ 0 0 φ 0 LQ μ- 0 ED Φ α n- μ- 0 0 M S3 tr Hi rt o Hi φ tr μ- ϋ ø 1-h Ω ø co n tr TJ Ω tr ø Φ Ω 0 M φ 0 tr ( Q Ω Hi φ tr μ- rt μ- μ- Hi μ- <J μ- C fi H- rt o CD Φ ED rt φ Ω 0 Hi Φ + Hi μ- 7s- 0 μ- tr φ ø < φ μ- M Φ ø 0 Q Ω — fu Φ 0 tr 0 CL Φ O 0 rt 0 α SD M μ- 0 n- ED ø ø φ LQ Hi ø 0 • ø 0 CL Ω ϋ fD TJ TJ ED ED ι-3 3 O Φ n- X Cf φ rt ≥i rt 0 φ Ω Ω 0 0 0 0 tr fi <! φ Ω 0 S3 rt tr Ω rt fD 0 ø μ- O rt Tr • ! fi ø 0 Cf Φ 0 0 fD Φ Ω 3 φ 0 TJ rt tr O ED rt μ- Ω Ω • <! to tr cn 0 ø ø ø Ω φ tr M Hi rt Ω Ω O M CL rt tr O μ- φ 0 LQ μ- ø Φ 0 oo μ- LQ O rt co ^ Φ • ^^ Ω φ fD Φ M ø O μ- CO cf φ <! LQ M O fD ^—* tr , , fD μ* TJ CJ 03 03 03 tr tr μ- μ> < Φ μ- ø CO 03 tr fu 03 SD M TJ Ω . μ- TJ φ rr Φ Φ Φ ø Ω μ- 0 - — O ø i Φ tr φ 0 rt CD tr rt rt fu Hi 3 Ω TJ S3 fi 0 fD Ω ø 0 n- < CO 0 ø fi Φ fD μ- ι-3 O 0 HI Φ φ rt φ 03 Di ø Φ rr Ω td fi SD LQ < tr ø Φ 0 M μ- 0 S3 Cj 1 rt Ω 0 O tr Ti" 0 Φ μ- Φ ■ <! -3 Ω cf M Di φ μ- Φ 0 rt Ω fi 03 rt 03 W rt Φ rt 0 0 Ω φ tr t W )— . > -_, © O © 3 TJ n- rt CO 03 TJ cf rt 0 Ω σs μ- 03 cn 03 LQ 3 rt S3 fD Ω cn TJ CO S3 ≥i CD CL TJ en rt H S3 0 0 ø tr tr TJ 0 0 tr Hi O o ø rt o tr fD μ- ø μ- 0 φ o 0 DO μ- Ω 0 Φ 0 o Φ tr Φ CL 0 Φ 0 M O Φ ED 3 > Ω μ- 0 3 Ω μ- rt Di M 0 rt O Ω rt Φ > CD H Φ M Ω S Φ M fD rt H J 1 1 0 3 s3 3 φ 3 tr M fi 03 tr tr Φ LQ rt tr ø μ- 0 J φ 0 μ- rt TJ μ- TJ Φ 0 TJ 03 SD Φ as ffi Ti ø tr 3 0 0 Ω Φ Ω SD fD Hi 3 td Ei 0 Hi Φ ED > Si ø CO SD M M S3 2! 03 rt o co Ω 0 0 μ- fD 3 fD O Di Φ <! ≥J cf φ tr CQ Ω Φ fi 0 ø SD • 03 f Cf TJ μ- Φ rt tr > S3 rf s3 tr Ω CO μ- 0 M M Φ Ω Φ 0 μ- SD ^ ø rt rt LQ rt Φ rt ^ - ^ tr 0 rt Φ Φ fD ^ - ^ μ- CD Ω φ ø Ω 0 S3 M CJ fD ø rt rt fD S3 μ- μ- fD μ- H Φ H fD 0 tr ED 0 Tl 03 Ω O Ω tr φ ^ 3 tr O 03 Φ Cf SD 0 tr Φ rt μ- 1 3 O 0 μ- fi TO cr Di M M co ø rt S3 Ω p Φ tr Φ Hi μ- rt Φ μ- 03 Φ rt Ω Ω 3 ø ø 1 ø SD 03 TJ 0 Ω tr tr SD μ- Ω S3 0 rt fD 0 0 μ- SD LQ tr CJ CJ SD SD H 13 μ- Ω ø O 0 S3 Ω O Ω Hi SD ø rt tr 0 ^^ tr 0 S3 £ TJ Φ ø 0 rt tr Hi μ- co co S3 ϋ H Tl H ø rf rt Φ φ I 3 Ω O rt CL tr φ μ- en φ Φ ø Φ Ω ø Φ φ 0 ø Ω μ- Di Tl ≥J — μ- μ- 03 LQ ø tr TJ ø rt rt ø o ø 0 rt ED ϋ ø O CO CO Hi rt μ- -3 1 <! O 1 rt ø Ω M 0 rt rr n O tr φ > SD rf μ- CD S3 3 < tr rt ■ rt μ- tr rt 1 LQ SD μ- ø Ω μ- fD 3 Ω Φ fD Di tr tr o Φ 1 M 00 tr 3 S3 μ- Ω Ω μ- Ω μ- μ- Q μ- LQ fD 0 <! CJ 3 ø o r 0 Φ φ Φ ø Ω Ti 0 03 fD Φ fD Ω rt 0 SD OΛ rt Ω 3 3 f- 0 O SD 3 fi O SD CO ø Ω M Φ fi ø ø ø 1 X fD CO S3 O rt ø CO 1 tr 0 TJ o ø ø ø ø tr ø 3 3 rt M φ M 0 Φ Tl Φ cn 0 — " φ Ω rt tr rr SD > O M M φ Ω ^ 3 fD cn rt μ- SD Ω Hi ■ ! ø Di φ co ø o 0 μ- tr D Hi Ω ø 0 Ω fD ED ED Ω SD o 0 Di ø rt 0 0 μ- tr Φ < - cf > CO 0 ED μ- O Ω tr 0 μ- Tl 0 rt rt co Hi TJ > φ μ- Φ 0 M IQ tr Ω 0 SU fu 1 0 Hi 3 rt LQ 0 Ω M rt co Hi CL Φ Φ CO S3 0 TJ 0 1 fD i-h <! L μ- fD C M Ω 03 M ø μ- T! TJ 0 φ tr H 0 SD Ω μ- CL CL • — * SD SD 0 0 i cr Hi μ- ø 0 0 o ( -3 0 tr rt CO TJ Ω M fi 0 CL 0 3 ^ — . iQ σs . CO Ω O CL O 3 φ rt CD φ Φ Ω SD tr 3 fD Ω 00 0 Φ M ϋ Ω μ- rt H (-! o CO TJ rt fi 0 φ 0 0 TJ S3 7s M 0 rr Ω 0 Φ tr Ω S3 Φ O μ- SD Ω 0 TO 0 TJ 0 SD μ- 0 Ω ,—, ø Φ O M ^ - ^ Φ CO φ 0 ϋ Φ Hi Φ CO Ω 0 μ- <! 0 ø σι 0 φ 1 (D M O tr O Ω rt H cf 0 Φ fi μ- CO fi 0 TJ φ CL ø Φ CO Ω M rt Φ 0 o 03 T Ti i Φ M M 0 rt μ- TO rt fD ' Φ SD LQ φ O 0 p ) M Di fD tr M rt Φ ,- ^ 0 co CO 0 μ- Φ μ- O 1 S3 0 0 rt tr . S3 M ED rt 0 M Φ D. D 0 CD TJ tr 1 fi Ω 0 — φ 0 Hi O O 0 13 μ- rt fi fu rt μ- fD rr tr fi Di O ø fD 0 Φ l HI M *- ^ tr Ω φ rt O ø CO rt μ- Ω CQ rt S3 0 φ Φ ED 3 fi S3 0 O φ M rt 0 1 μ- SD . SD • <: 0 O > — tr 3 rt Φ ø Hi μ- tr tr μ- cn Ω SD μ- Φ rt Hi <! fD tr — Hi 0 < rt ED S3 S3 φ tr M O 0 3 μ- 03 μ- ι-3 o cf 0 ø Hi μ- O μ- ø ,. — . Φ ^ φ fi Tl Φ Φ rt μ- Ti fu tr μ- Ω Φ M rt fD μ- rt M fD ø tr μ- fD μ- LQ μ- H O rt H ø 0 00 μ- ø co 03 n- ø 1 TJ ø 03 Ω M tr φ rt tr 1 < ED ø 0 tr 3 TJ ø μ- t 03 S3 ED ø 0 SD O tr M tr tr O 03 rt fu Φ μ- μ- Tl n- fi rt CO rt 3 3 CD 1 fD tr rr tr rt Hi ø μ- . — .. Hi φ μ- Ω μ- 3 Hi tr μ- 0 rt O tr TJ co rt Di rr ø 1 Ω TJ 3 μ- Φ Ω tr CD 0 tr H O tr Ω ø φ 0 0 O Ω tr ø μ- 0 μ- i-3 Hi ø LQ TJ CJ μ> Φ M Ω φ 3 0 03 μ- TO ø fD μ- rt SD 0 S3 ø 0 0 Φ rt M μ- rt tr rt ø Φ SD fD co — Φ ED 0 SD 3 rt rt ø r SD 03 03 3 P_ φ Ω μ- fD ø μ- ø SD 3 rr Di 03 rf 3 M ø TJ Di 3 φ ø • 0 cn 03 ø* 0 0 O 0 S3 O μ- Ω fi 3 Φ CO Φ CTι ø 0 M S3 fi rt co O Di D. 0 r o 0 μ- ø 0 ø μ- Ω Φ ø fD 3 rt μ- SD 0 cf Hi Ω o Ω Φ 0 Φ Ω μ- tr — S3 fi Tl φ tr > M ø rt Di 03 0 fD Ω Φ μ- 03 rt μ- μ- ø 0 fD φ 0 03 φ Φ μ- Φ rt μ- μ- fi Φ rt fD LQ μ- 0 fD fD M rt 03 O φ SD 3 ( Q Φ 1 3 rt 03 μ- rt ø tr rt IQ CO Tl 03 rt 0 rt Hi cf ζj 1 M μ- rr ø fD 0 . — . ø e fD Ti TJ Φ Ω 3 TJ ø tr SD φ CD G rt Φ CO μ- 0 μ- μ- μ- CD Hi J Φ 03 03 fi S! M 0 CD co SD CL SD μ- 03 ø rt ø tr S3 O S3 O H 0 ø O fu μ- ø φ Ω SD CD Φ . — , 0 TJ o tr 0 ø Φ fD Hi φ φ rt O φ ø r ø id ø fD Ω rt Hi 03 Di vo Cf m φ 3 ED φ o CL tr ø 0 0 Hi 0 tr CO ≥i rt cf rt • <: 0 ^ O vo Φ co μ- to ϋ μ- Ω S3 0 Ω r fD co μj Φ φ O 1 μ- 0 O O 3 cπ fi Φ ^ ø 1 Ω μ- φ Ω Ω μ- Ω CO i fD Hi Hi 0 S3 LQ *i 0 φ 0 3 3 μ- o •— TJ rt φ rr Di rt 1 rf ≥! rt μ- Hi Hi μ- EU μ- ø SD ι-3 φ ø n • co 0 " μ- su Ω μ- 1 Φ 0 0 ø rt 3 LQ rt O SD fD H O ø CJ O fi 03 0 tr ι-3 tr ø 1 rr 3 β Φ ø fi ω ø ft 0 Ω tr 0 ϋ rt O 03 fi Ω (D proliferation of splenocytes from 60A-F2 treated NOD mice. Similarly, we also tested the effect of peptide 1 in combination with rhCG on Thl differention and IFN- gamma production and proliferation. We observed that there was an increase of IFN-gamma production found under Thl polarisation conditions with peptide 1 (27 ng/ml) and r-hCG alone (25 ng/ml) as compared to PBS (20 ng/ml) , while the outgrowth of Thl cells was completely blocked with the combination of rhCG and peptide 1 (7 ng/ml) . Furthermore, splenocytes from peptide 1 and rhCG treated mice showed a higher capacity to proliferate as compared to the PBS treated control mice (CTL) , while peptide 1 in combination with rhCG caused the same decrease in proliferation as c-hCG and 60A-F1 arid 60A-F2. EAE model: Figure 35 shows the effect of 60A-F1 (IR-P1) , 60A-F2 (IR-P2) and 60A-F3 (IR-P3) in EAE model induced by PLP+PTX. Here, we see that the treatment of mice with 60A-F1 and 60A-F2 reduced the disease severity as well as delayed the induction of EAE. While 60A-F3 treatment only delayed the onset of the disease, suggesting that it needs an additional factor (s) from 60A-F2. These result are also consistant with weight results shown in figure 35. In this figure, mice treated with active NMPF fractions after EAE induction, lost less weight than PBS treated mice. In addition, treatment of mice with c-hCG and 60A-F3 fraction from c-hCG showed less disease severity in EAE mouse model induced by PLP/B. pertussis which is a chronic disease model for EAE (MS) (figure 36) . CAO model : Our CAO data showed that 15 rats in controle group treated with only PBS had infarcted area of 70+2% (avearge±standard error) after 60-minutes of CAO followed by 2 hours of reperfusion. While rats treated with peptide VLPALP, LQGV, VLPALPQWC, LQGVLPALPQ ,LAGV, LQAV and MTRV showed infarcted area of 62±6%, 55+6%, 55±5%, 67+2%, 51+4%, 62±6% and 68±2%, respectively. Here, we see that certain peptides (such as VLPALP, LQGV, VLPALPQWC, LAGV) have protective on the area at risk for > t ^ © ' tr L TJ rt μ- Φ 0 φ ø <! 0 CO C Φ fi rt 03 M ø μ- 0 Ω 03 Cf TJ cf 0 3 μ- μ- Φ 0 cf ø ø ø tr cf 3 Φ μ- SD 0 ø M CL Hi φ μ- tr 03 Hι CD 0 Hi Φ rt φ * tr K 0 0 φ CD 3 3 0 TJ fD SD cf φ M 0 Ω Φ 0 μ- ø 1 φ Hi fD M Ω μ- 0 φ Ω fi 03 TJ rt cf Ω Hi μ- 0 tr Φ 3 0 ED 3 ø 03 0 SD M ED M SD μ- Ω Φ rt ø cf Φ φ SD CO 0 0 0 <! μ- Di 03 SD 03 φ ø rt rt X ^ μ- ø; Ω ø CD SD 03 CO rt 0 • • - Φ CL ø ffi rr 0 rt 0 tr μ- Φ 3 φ D ED rt 0 μ- 03 Tl CQ SD K ø CL serves to stimulate development of ova in the female and sperm in the male. The fourth homrone, human TSH, is not directly related to reproductive function but is responsible for stimulation of the production of thyroxine which controls the rate of bodily metabolism. Recently, after solving the three-dimensional (3D) structure of hCG, it has been shown that hCG is a member of the structural superfamily of cystine knot growth factors like NGF, PDGF-B and TGF-beta. HCG exhibits a variety of forms, especially in urine (Birken, 1996; O'Connor, 1994; Alfthan, 1996; Cole, 1996; Wide, 1994; Birken, 1993; Cole, 1993). It appears in abundance in the urine of women during the first trimester of pregnancy. It exhibits charge heterogeneity due to variability in its sialic acid content. These forms include heterodimeric hCG with intact polypeptide backbone (hCG) , heterodimeric hCG with peptide bond cleavages it its beta-loop 2 (residues 44-49) (nicked hCG) , hCG beta-core fragment which is derived from hCG beta-subunit and is composed of residues 6-40 disulfide bridged to residues 55-92 and containing trimmed carbohydrate groups with no sialic acid, hCG beta-subunit derived from dissociation of hCG (beta-hCG) , hCG alpha- subunit derived from dissociation of hCG (alpha-hCG) . In addition, there is a pituitary form of hCG and pituitary form of an hLH beta-core fragment. The beta-subunit , like the alpha-subunit of hCG, is composed of three loops; roughtly loop 1 (residues 9-40), loop 2 (residues 41-54) and loop 3 (residues 55-92) . The beta-subunit also has the region termed "seatbelt", which wraps the alpha-subunit. The beta-subunit contains six disulfide bridges which hold the molecule together when peptide bond cleavages take place in loop 2 resulting in nicked hCG. The beta-core fragment is missing most of loop 2 and the seatbelt region. Hence, beta-core fragment is missing the entire seatbelt region, most of loop 2, and part of the amino terminus of the beta-subunit. Cleavages in the beta-loop 2 region (since is known to be exposed to solvent and is easily cleaved by proteases) result in biologically inactive hCG and many immunoassays fail to measure nicked hCG accurately due to diminished immunopotency after cleavages in beta-loop 2. Here we have shown that number of selected breakdown products from loop 2 have immune regulatory effects. In our experiments peptides 4 (LQGV) and 6 (VLPALP) inhibited shock completely, while peptide 2 (LQGVLPALPQ) , 3 (LQG) and 7 (VLPALPQ) accelerated shock. In addition, 1 (VLPALPQWC) , 5 (GVLPALPQ) , 8 (GVLPALP) , 9 (WC) , 11 (MTRV) , 12 (MTR) , 13 (LQGVLPALPQWC) and 14 (cyclic, CLQGVPALPQWC) showed in number of different experiments variability in effectiveness as well as in the kind (inhibitory vs accelerating) of activity. This variability is likely attributable to the rate of breakdown of the various peptides, and the different effects the various peptides have. Nicking in amino acid residues of beta-hCG beginning at residues 44, 45, 48 and 49 by human leukocyte elastase are observed and the existence of nicked hCG (and also analogous nicking residues) had been established by several investigator (Kardana, 1991; Birken / 1991) . Moreover, one or two nicked beta site are also commonly seen in a single hCG preparation as well as in LH preparations (Ward, 1986; Hartree, 1985; Sakakibara, 1990; Birken, 2000; Cole, 1991; Birken, 1993) . Existence of these peptides or their homologous during pregnancy explains the immunoregulatory state of the pregnancy. We have also shown that combination of peptide 1 with recombinant hCG is able to inhibit the development of dominant Thl CD4+ T cells while alone peptide 1 as well as recombinant hCG are not . This strongly suggests the need of additional factor from hCG in order achieved this effect. These other factors could be derived from different parts hCG or their homologous that are known to exist as fragments such as residues beta-CG6 -40 , beta-CG41-55 , beta-CG55 - 92 and beta-CG90-110. In addition, anti-septic shock peptides as well as shock accelerating peptides have some homology (>30%) with certain regions of the above mentioned fragments. Previously, we have shown that 60A-F2 (also t to © o M TJ tr μ- μ- tr 0 0 S3 rt 0 rt Ω TJ Hi Ω cf fD TJ 13 03 TJ Φ 0 ø rt CL rt μ- TJ CQ tr Ω rt ED TJ 7s- •^ 0 fD 3 ø fD Φ Hi Φ tr Hi 0 0 0 0 Φ tr 0 td 0 μ- 0 X Φ Φ tr μ- tr 3 Φ fD fD O tr Ω O ø Φ <1 3 < SD Φ 0 0 0 M SD Φ 3 0 ø φ TJ CD LQ μ- 03 Φ 3 TJ 3 < Φ Ω CD O TJ 03 φ 0 0 φ 03 TJ tr rt tr rt rf 3 M rt Ω D- LQ TJ J 0 03 Φ 0 rt φ Φ tr φ CO S tr φ ø M 0 fD SD TJ tr Φ 0 Φ CD SD ø M fD S3 ) 0 M fD μ- ø μ- μ- TJ M φ ø 0 0 cf φ <! 0 0 0 < ø φ 0 fD tr g M Hi Ω ≥i φ 0 μ- 0 SD TJ SI 03 3 Φ D. μ- SD ø Φ Φ 00 Ω cf tr φ ø fD Φ 0 Φ M CO Ω * 03 0 Φ 0 fD ø 00 rt SD φ Φ 3 Φ 03 ø ED TJ 0 fD ^ μ- Φ 0 CL M tr ≥! fi tr X M Φ Ω μ- TJ 0 0 3 Ω rt CD φ O rt ø CD 03 rt rt rt ED fD 03 cf ø φ *< M Ts- SD ø 0 n- Φ CO rt Tl 3 tr tr O μ- CD 0 Φ tr fD ø ; rf μ- μ- μ- rt 0 φ LQ SD 03 μ- φ M Ω Di 03 fi M SD > Φ 3 O cf ^ 0 fD 0 Φ CO fD ø O fi Φ rt μj 03 tr TJ ø 0 Ci CQ f * rt fD μ- μ- Ω tr 0 ø 3 0 ør fD rt <! fi rt Ω ø Ω 0 Φ CQ μ- fit Ω μ- 0 fD cf Φ 0 μ- tr 0 7s- 03 O M 0 TJ φ 03 φ 0 Φ φ 03 Φ r Φ tr 03 1 TJ Φ M ø rt f 0 M 0 fD μ- ^ L Φ ø Φ 0 M 0 ø fi Hi SD μ- * 3 ø S3 CD CO J 0 M μ- 03 tr 0 M 0 ø 0 ø TJ M fD Hi Ω fi tr Hi TJ 03 ø 03 μ- Hi 0 μ- φ tr to TJ M rt Φ Φ 0 rt 03 tr D. cf μ- 3 O ϋ rt TJ Ω μ- Φ φ SD Φ TJ tr rt fu 0 O ø rt rt TJ 0 0 03 ^ CD fD tr CO 0 tr tr rr O 03 0 ø Φ 03 fD 0 Cf 0 Ω M 0 μ- Φ ø Ω ø μ- tr fD rt Ω S3 M ø M μ- ^ - ^ φ Hi o 0 Φ 03 M 03 tr Φ 0 rt M μ- φ Φ rt μ- S3 3 3 Si O Ω tr μ- 7s- μ- fU ,—, cf ^ - ^ Φ ø £ 0 0 3 CO Φ μ- Φ TJ LQ rt 0 <! ø 03 Ω ø 3 ø fD fD M Ω rt Cf 0 CQ LQ 7s- 7s" TJ < 03 φ fD φ 0 Ω tr 0 0 fD CL 3 Φ 0 TJ ED 0 M rt 03 0 μ- tr Φ Φ tr μ- Tl SD 0 μ- φ ø ø Φ 0 M TJ 0 SD - μ- fD D LQ 0 O rt μ- ø μ- O Φ rf ø 0 CO Hi 0 Ω 3 μ- M M cf Φ fi Ω 0 TJ LQ M φ ø ϋ 0 φ 0 Φ φ -- 0 μ- ø φ Ti- 0 μ- Hi < tr Hi SD ø — o rt SD M tr LQ tr Hi T ) 0 0 Φ 0 0 rt tr D 0 Hi ø CO O φ TJ rt M Φ o Φ ø Si 0 rt φ SD 0 μ- M 0 M CD rt P Ω 0 Hi 0 Φ φ μ- ø O 3 ø td fu — Ω Ω rt M ø μ- 0 rt M ø μ- rt fD rt SD tr 0 φ μ- rt tr fD O μ- 0 ø 0 φ n- Φ rt M > 3 3 T rt μ- H μ- o SD 3 tr 0 Φ rt μ- SD Ω ø fD Ω 3 rr rt ø rt 0 Di ø <i O 3 Φ 0 03 J 0 7s SD DO ø Ω rt rr 0 3 φ Ω fD μ- 0 rt φ tr CL Hi < rt ^ ED tr μ- Φ fD ø CD ϋ Φ Cf O Φ 4 μ- 0 0 μ- Φ 03 0 Ω μ- 0 φ 0 TJ μ- rt ED TJ fD μ- 0 3 fD rt rt Φ ui fD μ- SD Φ O 0 M fD 0 0 ø 0 0 φ 0 rt g tr Ω < ø 0 0 μ- 0 Φ rt 0 rt ø rt fu Ω 0 μ- fi 0 0 SD Si 3 O Hi M cf 0 0 Cf 03 tr 3* ■ ! μ- CD φ Φ ø φ Φ Hi μ- rt 0 0 •« fi tr CL Ω Ω * — ' φ 3 TJ fD 3 Φ TJ L Φ tr 0 LQ <! ED rf 5 fi Φ fD ø μ- • ^ 0 μ- Φ μ- 0 φ ED fD rt 0 i. 0 tr - μ- fd TJ > ø X 0 0 0 ED ø tr μ- Ω 0 rf <! φ ø μ- φ rt rt 0 M fi Ω tr Hi TJ fi * S LQ TJ M TJ ED fD S3 fD φ 0 fi φ O D- rt fi fD μ- fi rt <J μ- μ- TJ M Tl 0 Cf φ Φ ø CD 03 fD tr ø Ω SD ED M 3 ø 0 CO μ- D 0 μ- μ- μ- rt SD rt φ Ω 0 tr 0 0 TJ μ- 03 CJ ø M μ- Φ 0 rt φ 0 Ω 0 CD TJ Ω 0 ED ED φ 03 03 O Ω ø > ; 0 ft, tr μ- 0 ø fu M 0 rt < Φ X μ- fD 0 0 ^ CO 0 φ rt M rr ■ <: M tr CL Φ ø O rt ø Φ 03 fD LQ SD μ- n- 3 Cf M 0 tr Φ M 0 EU Φ tr rt M O g TJ fD 03 ø tr μ- ED μ- Ω Cf φ 0 μ- <! rt cf LΠ φ μ- 0 3 TJ Φ ø fi rt Hi 0 fD 0 CO φ TJ § SD 00 ~ rt φ H LQ 03 M ø rt tr 03 ø Φ *< s ø ø LQ 0 Ω SD 0 CL TJ rt ø rt TJ rt Φ 0 3 tr ϋ 3 Φ μ- μ- Φ 0 CQ *- 3 rt LQ μ- fD 0 SD Φ fD 0 μ- μ- S3 0 μ- TJ Φ CO 03 O 0 Φ μ- Φ TJ 7s 03 < Φ rt fD φ SD 03 Ω 0 rt M M ED 3 3 rt tr ø μ- ED <! 0 . Φ M CD CD SD 0 rt φ 0 n- 03 D 03 ED 03 tr 0 TJ fD fi Φ 03 0 03 0 EU ø Ω φ rt rt Φ SD rt TJ rt φ tr rr μ- M 3 rt rr Ω TJ ø 0 0 Ti 1 rt Φ M fD 0 Hi O Di rt M μ- Ω - μ- Ω CD L fD Φ 03 Ω Φ 0 0 Ω S3 rt Hi Φ tr TJ μ- 03 tr Φ rt φ O μ- r ^ - ^ μ- μ- 03 <! rt 0 0 φ φ ø Φ rt 0 ø φ rt <! tr tr Φ fu μ- < Ω 3 μ- si 03 03 μ- fD μ- Hi CD rt Ω 0 SD CQ - M fD Ω — - μ- 0 CD μ- SD φ *< μ- ø 03 φ O 03 3 <J o ^ tr 03 0 Ω ø tr tr fD Si LQ 0 Φ M 0 Φ ø Di M 0 LQ 0 TJ 0 * ø 3 ø μ- o fD μ- — - O 0 fD CQ O ϋ S3 Φ M TJ Φ Φ rt fD tr μ- fi 3 0 fi ø 3 S3 0 rt vo fD M μ- 0 3 Ω rt Φ Φ Ω 0 Ti- fD M μ- ø CD 03 tr 0 rt 0 φ SD 03 μ- fu O Hi Φ tr Φ μ- cπ 0 fD ø 0 φ Ti" 03 ■ ! 0 Hi 03 fD CD rt Φ • Φ Φ M ø 0 cf 03 <! CD rt 0 0 n- Φ vo rt 0 03 Hi tr μ- μ- cf cf a M LQ Ω ø ■ <: CD μ- Φ μ- μ- O Ω Ω 00 cn O Ω rt Hi Φ 3 ø r 0 0 tr SU Φ μ- 03 fi μ- ø CQ 0 03 ø tr CL S3 O 3 μ- tr μ> μ- Φ tr Φ rt O fi O cf Φ 0 M 0 0 0 03 M μ- 0 TJ tr Φ 0 μ- ø Φ ø fD tr -~3 3 03 Φ Ω SD Di Φ rt 0 ø rt M 0 fD ø M fD 0 Di SD M fD M M cf M fD — * 3 rt Φ Φ X μ- 03 SD 0 rt Ω CL ø S3 M μ- M M • <; tr <! ø O CD tr M Di μ- LQ Cf 0 μ- Φ cf 0 rt CO Φ tr Φ fD ø Hi Ω Ω φ Φ rt 0 tr CD SD Ω 0 φ Ω μ- ø 0 Φ 03 Ω ø to t © © © <! 0 o ED TJ TJ Ω tr C TJ μ- TJ rt tr tr μ- μ- < 03 ED Hi CO 3 φ ø μ- g DO rt μ- Ω TJ ED J3 n- μ- rt SD fD rti 0 M 0 SD μ- Φ μ- φ 3 Φ 0 ED SD ø ø tr tr LQ Φ ø su 0 Φ 3 § O tr ø Φ 0 03 tr 3 ø O Ω CD LQ CO 0 rt 0 rt ø TJ 3 TJ <! Φ Hi Hi TJ 0 ED rt Ω 3 D- M 3 TJ O ø M TJ μ- cf rt 3 D. Ω 03 fD 0 tr Ω S3 Φ rt ø rt 0 φ 3 SD fD S3 μ- ø Ω fu 0 fD ø Tl H 0 fi M 0 CO Ω 0 0 rf μ- 0 0 0 Φ 0 0 Φ Ω μ- ø μ- 0 0 0 0 tø ø 0 CD Φ M Ω rt ø — • 0 0 1 M φ tr ø Ω tr <! M Ω 03 03 Ω LQ M Φ rt CL O CL rr SD 0 Ω Ω Tl H 03 03 μ- 0 μ- φ fD • LQ μ- 3 ED TJ 0 μ- Φ μ- fD tr 0 rf Φ SD ø M φ M φ Φ 0 tr rt rt rt 0 Cf SD 03 ED μ- 0 0 tr <! Φ rt CO ED 3 ø rr 0 SD LQ μ- ø rt ^ 03 0 Q rt SD Φ μ- 3 tr 0 Hi 0 ø ø 03 Di CQ μ- Ci μ- μ- 0 0 LQ μ- " ϋ 03 LQ <! 03 0 Ω LQ rt μ- LQ fi 0 SD SD Cf Φ 0 Φ CO *<: 0 > ø μ- 0 03 φ fi ø μ- μ- Φ Φ μ- ø > 0 tr μ- CO tr I μ- ø Ω Cf fi tr M Hi tr 03 tr TJ LQ ED 0 • 0 CD tr O ø 03 S3 03 03 • ; O ø fD Ω tr ED 03 Ω P ) - C ø SD Φ 03 μ- Cf Ω Ω rt μ- M μ- n- Hi Ω φ Φ rt ø < ED 0 rt Φ 0 Ω μ- φ M TJ Cf * T Φ Ω fi ι-3 Φ S3 ≥i 0 fD LQ tr μ- SD M 0 0 CD fD μ- Φ M s3 TJ μ- Φ H tø Φ rt SD CO ED 0 03 3 ø fD 1 fi tr 0 < rt ø μ- ≥i Di 03 M rf M Hi *< 0 ø φ 3 rt ø SD 0 > ø μ- rt 0 0 03 Cf tr μ- 0 LQ Ω n- rt 0 0 μ- rr ^ Φ φ tr Φ 03 fi Di SD Φ fi μ- μ- Hi Ω rt 0 03 fD Φ φ ED ø μ- fD Φ μ- Ω M 0 Hi μ- ø CD μ- φ rt Cf μ- M ' Hi Ω Ω SD tr ED < SD ø 0 CO TJ 3 cf 0 ø μ- M 3 tr 0 <! •<: μ- O Ω cf 0 0 tr Φ 03 ø CO HI M φ 0 0 fi μ- - M TJ μ- Φ 03 S3 fi r LQ ø M 3 0 φ Ω ø Φ ED 03 Hi Φ 3 Φ φ 0 Φ φ CQ Ω rt Di ø μ- r rt 0 Φ tr 03 ø tr M ϋ Φ fD M ,—, 0 Ω fD TJ Ω Ω CO rt tr rt μ- tr μ- 7s μ- φ Ω Φ rt φ TJ rt tr 0 ø ^ Hi 0 0 M Ω Φ μ- 3 £2 fi TJ 03 rt Φ rt 03 ø 0 φ μ- rt fD TJ ø φ 3 Φ Ω ø 0 0 0 Φ μ- μ- HI rt Hi 03 ø Φ ^ μ- M μ- M Hi Φ Ω L ø μ- <! Φ SD fD μ- 0 O 3 Φ rt 03 D. SD , — . ø Φ M Ω TJ 03 SD 03 • ! HI < ED 7s- 0 Φ TJ rt μ- M ø < 3 TJ fD LQ tr rt 0 LQ 0 Ω rt rt Φ — tr 0 TJ l φ • ! Φ rt n- rt CO ø rt tr ø M Si Φ 0 fD tr r ø Φ Φ φ Φ i rt 0 0 03 - 0 M ø SD 03 3 fD Ω tr 03 Φ SD ι-3 0 TJ μ- μ- Hi ■ : CL 0 rt 0 Φ fD 0 CO μ- X 3 TJ rt ED 0 0 CO 0 ø Cf Φ Ω CL Ω tr 3 ø Di 03 Φ 0 Φ Φ tr ø 0 μ- Φ TJ μ- rf Hi μ- μ- O Φ Ω rt rt 0 φ ED Di CL ø 0 Cf φ Φ TJ 0 Φ Ω μ- 0 0 M ø Ω ø CO o ø tr Hi 03 Ω ø Ω μ- 0 0 Φ • 0 Φ 0 Φ 0 S3 μ- 03 Φ rt 03 TJ Cf 3 ED CO 0 fD SD * rt TJ 0 ø Φ φ μ- μ- 0 0 ø Ω 3 M cr 0 CD μ- φ μ- TJ Φ fD μ- 3 rt CD μ- fD 03 M ø 0 CD SD 03 0 ED rt fD ED Ω cf ■ <: rf ^ H μ- CO tr μ- μ- rt μ- ø rt Ω ^ - ^ cf 0 ø tr Di M rt rt fD 0 Φ rt φ φ M ^ 0 M 0 μ- 0 0 3 φ tr 03 rt tr rt SD CO μ- rt 03 Φ 0 ø Φ ED φ Φ tr Ω 03 03 Φ 0 CD fi M M M ø < Ω TJ 0 M > < * ; 0 rt CL μ- 0 ø 03 0 fD Hi ø Φ Φ Φ Ω rt 0 ^ - ^ •<! SD μ- Φ Φ fD rr 0 CQ φ 0 su Ω φ SD φ <! Ω cf • 1 0 CO . 0 0 CL M CD tr 0 φ > rr Cf 3 M 0 tr ø 0 0 0 Φ μ- ø Φ tr Ω rt 0 ø fi 0 0 Ω M 0 Φ M TJ O ø ø TJ 0 μ- ED Φ . μ- rt - fD ϋ TJ Hi 0 ø rt Ω tø μ- 0 tr Ω Φ Ω Ω 0 ø Di rt CD M fD tr fD 3 ED 0 rt rt Hi μ- 03 fD 0 rt tr Φ lO 0 ED 3 Φ Ω Hi rt 0 0 M μ- μ- 03 rt CD μ- o 0 "< Φ Φ Hi fD ø μ- Ω Ω CD tr fD < φ CO 0 CD TJ TJ ø Φ cf Φ μ- μ- 03 fD ø rt 03 tr φ 0 1 Di CL Φ M Ω rt 0 φ 0 CO M μ- n- < M μ- 03 0 rt 0 ø 03 0 φ tr rt Ω 0 0 ≥I CL Ω 0 SD μ- o ø < CO rt rt < μ- rt cf 03 SD ø Φ Ω Φ SD 0 M <! DO 3 n μ- rt CL rt μ- 0 tr rt LQ tr 0 0 SD ø" 03 tr tr Ω Φ tr Hi g M rt 0 rt ø 0 0 φ O Φ 03 μ- ø 0 0 fD ø μ- Di fD • 3 Φ tr Φ Tl fD 0 Φ 0 3; 3 03 fD 0 M Ω Ω LQ fi O rt Ω Φ co 0 Hi 3 M r μ- M M tr φ 0 > rt rt M Ti μ- 0 ■ <; M LQ ■ : fD Φ μ- μ- O fD Φ SD φ Hi fD 0 Φ tr ø ED μ- 0 H ED S3 su tø μ- 3 Tl 3 Di 03 7s- SD M £D Ω tr — 03 M CD Ω fD 0 ϋ rt rt < rt TJ 0 φ ø J 0 Hi SD SD 3 ø r 0 0 03 ED M SD " ! • rt M φ Φ CO S Ω Φ μ- 3 tr μ- ^ TJ Φ Φ Φ Φ ø 0 rt M fD ø M Φ 3 μ- 0 0 0 M fD 03 CD 0 φ § rt M ø 0 0 0 ED μ- TJ ED SD - 0 Φ M 0 0 fD 3 Φ 03 Di Ω ø CQ 03 Φ • TJ μ- CL 3 ø rt 0 3 03 rt CD tø 0 0 fi μ- rt CL 3 μ- TJ Φ μ- Φ 0 μ- Ω 0 tr TJ 0 S3 rt Φ 0 tr rt Φ μ- S3 3 ED lΩ S3 TJ 0 LQ rt Φ μ- ø M ED M ø 0 Ω 03 O Hi ø Cd 0 Φ tr M M CO SD 0 μ- D< fD fD rt Ω Φ 0 SD 0 tr *< CL fD Di fD Ω M 03 rt tr 0 SD X μ- Φ 0 ^ cf Hi rr Φ CO M < 0 M ED Cι r Φ rt ι-3 μ- JD 0 0 S3 Cf Cf M SD ø rt 03 rf LQ 03 0 μ- TJ CO M 0 tr rt Hi Ω ED tr Ω φ SD ø 0 M 0 μ- 0 tr 3 tr Φ tr ■ <! rt rt 0 0 0 Φ μ- ED Φ SU rt 0 φ μ- CL rt φ fD μ- rt TJ rf μ- φ TJ 0 μ- Φ Φ Φ tr 3 ø 0 rt 0 03 <! Ω 0 i Φ Ω ø 03 tr tr tr M rr 03 3 φ Φ rt tr 7s φ rt Si fD 0 tr Si rt 0 Φ μ- O 0 φ tr SD CO D. ED fD μ- 0 fD ■ <: SD M 0 fi 03 M ø cf CD φ φ ø rr Hι 0 rt CL M ^ M 0 CO cf φ 0 rt 0 ø tr Φ Ω 0 φ tr brain, retinopathies (such as associated with vascular diseases like diabetes) , circulatory diseases of pregnancy, thrombosis, atherosclerosis. Since NMPF has a immunomodulatory effect and protective effect on CAO induced infarct, it can also be used in instances where there is risk of low blood circulation leading to decrease in oxygen supply (hypoxia) . Examples are (but not limited to) angiography procedures, PTCA, (coronary) bypass procedures and stenosis. Figure legends Figure 1: This figure shows macrosphere GPC 300 A chromatogram of NMPF (Pregnyl) sample. Three selected areas were fractionated, NMPF-1 which elutes apparently with molecular weight of >25 kDa, NMPF-2 which elutes apparently with molecular weight between the 25kDa-6kDa, and NMPF-3 which elutes apparently with molecular weight < 6kDa. Figure 2 : This figure shows macrosphere GPC 60A chromatogram of NMP-3 fraction obtained from macrosphere GPC 300 A column. Three selected areas were fractioned, NMPF-3.1 which elutes apparently with molecular weight between 2000-300 Da and NMPF-3.8 elutes apparently with molecular weight lower than 300 Da (figure 2.) . All fractions were tested for anti-shock activity. Figure 3: This figure shows that PBS-treated BALB/c mice succumbed to shock from day 1 after high-dose LPS injection, with lower than 10% of mice alive on day 5. In contrast, 100% of the mice treated with NMPF from source Pregnyl, or its fractionsNMPF-1 or NMPF-3 obtained from GPC 300 A column, were alive on day 5 (P<0.001), while groups of mice treated with NMPF-2 from source Pregnyl or Dexamethalsone (data not shown) demonstrated around 25% of survivors . Not all commercial hCG preparations showed NMPF activity; for example NMPF from source Profasi showed only partial anti-shock activity (around 40% survival) . Figure 4: This figure shows anti-shock activity in a pretested active batch resided in a fraction NMPF-3 and thereof derived NMPF-3.2 fraction which inhibit shock even after 24 hrs. and 36 hrs. of shock induction. In addition in all mice treated with NMPF-3.2 fraction alone, septic shock was inhibited and they had sickness scores lower than 2, while this anti-shock activity of NMPF-3.2 fraction was inhibited with NMPF-3.3. NMPF-3.3 treatment alone accelerated shock and the treated mice died even earlier than PBS treated mice. Figure 5: This figure shows macrosphere GPC 60A chromatogram of pooled NMPF-3.2 and NMPF-3.3 fractions from first trimester pregnancy urine (containing anti- shock activity) . This figure shows that the ratio between fraction NMPF-3.2 and NMPF-3.3 is around 1:2.2 (see text) . Figure 6 : This figure shows macrosphere GPC 60A chromatogram of pooled NMPF-3.2 and NMPF-3.3 fractions from non-active Pergnyl batch (containing no anti-shock activity) . This figure shows that the ratio between fraction NMPF-3.2 and NMPF-3.3 is around 1:3.4 (see text) . Figure 7 : This figure shows macrosphere GPC 60A chromatogram of pooled NMPF-3.2 and NMPF-3.3 fractions from active Pergnyl batch (containing anti-shock activity) . This figure shows that the ratio between fraction NMPF-3.2 and NMPF 3.3 is around 1:1 (see text). Figure 8: This figure shows LPS induced proliferation of splenocytes. Anti-MIF and NMPF (from active Pregnyl batch, NMPF-PG*) are both able to decrease LPS stimulated proliferation as compare to LPS alone, and together they show synergistically inhibitory effect on LPS stimulated proliferation. Figure 9: This figure shows NMPF-A (APL) accelerate LPS induced proliferation, while this proliferation is inhibited by anti-MIFand NMPF-G* . Figure 10: This figure shows that low molecular weight fraction (NMPF-PG3) from active Pregnyl batch (NMPF-PG*) as well as complete NMPF-PG+ are able to inhibit NMPF-A accelerated LPS induced proliferation. Figure 11: This figure shows that NMPF-PG " (non-active Pregnyl batch) and NMPF-A or in combination (synergistically) increase LPS induced proliferation, while NMPF-PG* inhibits this proliferation same as anti- MIF (see figure 8-9) . Figure 12 : This figure shows that NMPF-K accelerates LPS induced proliferation same as NMPF-PG-, while in combination they synergistically increase proliferation and this increase in proliferation is inhibited with NMPF-Kb or NMPF-PG*. In addition, NMPF-Kb and NMPF-PG* synergistically decrease LPS induced proliferation. Figures 13-15: These figures show dose dependent (300 and 600 IU/ml) inhibitory effect of NMPF-PG+ on LPS and PHA/lL-2 induced proliferation of PBMC isolated from septic shock patient. Same effect was observed in medium conditions alone. Figure 16: This figure shows macrosphere GPC 60A chromatogram of c-hCG. Three selected areas were fractionated, 60A-F1 which elutes apparently with molecular weight of >10 kDa, 60A-F2 which elutes apparently with molecular weight between 10 kDa-1 kDa and 60A-F3 elutes apparently with molecular weight lower then 1 kDa. All fractions were tested for anti-shock activity. Figure 17 : This figure shows G25 Superdex chromatogram of c-hCG. 100 L fractions were collected (fraction I-VII) and all fractions were tested for anti-shock activity. Figure 18: This figure shows G25 Superdex chromatogram of first trimester pregnancy urine from healthy individuals. 100 mL fractions were collected (fraction I-VII) and all fractions were tested for anti-shock activity. Figure 19: This figure shows that in vivo treatment with LPS increased MIF production as compared to PBS treated mice, while Peptide 1 treatment after the shock induction inhibited MIF production. No effect on MIF production was found in mice treated with Peptide 1 alone. Figure 20: This figure shows that after restimulation with LPS in vi tro, splenocytes from LPS treated mice have a greater capacity to proliferate in vitro as compared to PBS treated mice. On the other hand, splenocytes from LPS+peptide 1 and LPS+c-hCG-V treated mice showed a much higher capacity to proliferate as compared to the LPS treated control mice. No differences in LPS induced proliferation was observed in mice treated with PBS, peptide 1 or c-hCG-V alone. Figure 21: This figure shows the effect of restimulation of splenocytes from in vivo treated mice with different doses of LPS in vitro. Figure 22: This figure shows that the shock inhibitory activities (c-hCG, peptide 1, peptide 4 and peptide 6) increased the expression of CD80 molecule on CD19 cells as compared to PBS+LPS control group, whereas minor effect was observed with peptide 7 which accelerates shock. Figure 23-28: These figure show flow cytometry analysis on splenocytes from treated BALB/c mice. Figure 29-31: These figure show that hCG and c-hCG bind to 293-hLHRwt/CREluc cells and induce dose-dependent luciferase activity (fig. 29) , while no effect was observed in luciferase activity with peptide 1 (VLPALPQWC) , 2 (LQGVLPALPQ) , 4 (LQGV) , 6 (VLPALP) and low molecular weight fraction c-hCG-V (figure 30) . Moreover, addition of peptide 1, 2, 4, 6 and fraction c- hCG-V in the presence of hCG also did not show effect on luciferase activity induce by hCG itself (figure 31) . Figure 32: This figure shows that there was moderate inhibition of IFN-gamma production found under Thl polarisation conditions with 60A-F3 (c-hCG) and rhCG alone, while the outgrowth of Thl cells was completely blocked with the combination of rhCG and 60A-F3 (c-hCG) . Figure 33-34: These figure show that anti-CD3 stimulated splenocytes from NOD mice treated with c-hCG, and 60A-F1 have a smaller capacity to proliferate in vitro. Furthermore, splenocytes from 60A-F3 (IR-P3) and rhCG treated mice showed a higher capacity to proliferate as compared to the PBS treated control mice (CTL) , while 60A-F3 (IR-P3) in combination with rhCG caused the same decrease in proliferation as c-hCG and 60A-F1 (IR-Pl) (figure 34) . Moderate effect was found in the anti-CD3 stimulated proliferation of splenocytes from 60A-F2 treated NOD mice. Figure 35-36: These figure show the effect of 60A-F1 (IR- Pl), 60A-F2 (IR-P2) and 60A-F3 (IR-P3) in EAE model induced by PLP+PTX. In addition figure 36 shows the effect of treatment of mice with c-hCG and 60A-F3 fraction from c-hCG in EAE mouse model induced by PLP/B. pertussis which is a chronic disease model for EAE (MS) .

Claims: Claims 1. An immunoregulator obtainable or derivable from beta-HCG capable of regulating Thl and/or Th2 cell activity. 2. An immunoregulator according to claim 1 capable of modulating dendritic cell differentiation. 3. An immunoregulator according to claim 1 capable of protecting a mouse against a lipopolysaccharide induced septic shock. . An immunoregulator according to claim 1 to 3 obtainable from nicked beta-hCG or beta-core hCG. 5. An immunoregulator according to anyone of claims 1 to 4 which comprises a peptide having an amino acid sequence MTRVLQGVLPALPQWC or functional fragment or functional analogue thereof. 6. An immunoregulator according to claim 5 wherein said functional fragment comprises an amino acid sequence LQGVLPALPQWC or functional analogue thereof. 7. An immunoregulator according to 6 wherein said functional fragment comprises an amino acid sequence VLPALPQWC or LQGVLPALPQ or functional analogue thereof. 8. An immunoregulator according to claim 7 wherein said functional fragment comprises an amino acid sequence VLPALPQ or GVLPALPQ or GVLPALP or VLPALP or QWC or PALP or LQGV or MTRV or WC or MTR or LQG or functional analogue thereof . 9. An immunoregluator according to any of the preceding claims wherein one or more amino acids have been replaced by an alanine residue. 10. An immunoregulator according to claims 8 or 9 capable of protecting a mouse against a lipopolysaccharide induced septic shock or diabetes or Experimental Auto-immune Encephalitis/multiple sclerosis. 11. Use of an immunoregulator according to anyone of claims 1-10 for the production of a pharmaceutical composition for the treatment of an immune-mediated- disorder. 12. Use according to claim 11 wherein said immune- mediated disorder comprises chronic inflammation, such as diabetes, multiple sclerosis or acute or chronic transplant rejection. 13. Use according to claim 11 wherein said immune- mediated disorder comprises acute inflammation, such as septic or anaphylactic shock or hyper-acute transplant rejection. 14. Use according to claim 11 wherein said immune- mediated disorder comprises auto-immune disease, such as systemic lupus erythematosus or rheumatoid arthritis . 15. Use according to claim 11 wherein said immune- mediated disorder comprises allergy, such as asthma or parasitic disease. 16. Use according to claim 11 wherein said immune- mediated disorder comprises an overly strong immune response directed against an infectious agent, such as a virus or bacterium. 17. Use according to claim 11 wherein said immune- mediated disorder comprises pre-eclampsia or another pregnancy related immune-mediated disorder. 18. Use according to claim 12 to 17 wherein said treatment comprises regulating relative ratios and/or cytokine activity of lymphocyte, dendritic or antigen presenting cell subset-populations in a treated individual . 19. Use according to claim 18 wherein said subset populations comprise Thl or Th2 , or DC1 or DC2 cells. 20. Use according to anyone of claims 12 to 19 wherein said immunoregulator comprises a hCG preparation or a fraction derived thereof. 21. A pharmaceutical composition for treating an immune-mediated disorder comprising an immunoregulator according to anyone of claims 1 to 10. 22. A pharmaceutical composition for treating an immune-mediated disorder comprising an active component t to © © © t L φ tr p M tr 0 ED 0 ø fi Ω μ- 03 p fD LQ 3 J TJ M Φ φ TJ rt μ- rt D< tr Φ φ <! 0 Φ φ ø M D fD rt CO μ- <! ED Φ tr ø Φ fD fD rt 0 μ- rt 0 Hi 0 fD Hi μ- M c fD ø * Φ Φ fD fi 0 Φ rt Ω ø Hi Φ fD fD μ- CO M μ- 0 p 0 LQ φ peptide, said peptides being derivable from breakdown of beta-HCG. 39. A method for selecting an immunoregulator comprising determining therapeutic effect of an immunoregulator by subjecting an animal prone to show signs of diabetes to a peptide composition or fraction thereof, and determining the development of diabetes in said animal . 40. A method for selecting an immunoregulator comprising determining therapeutic effect of an immunoregulator by subjecting an animal prone to show signs of septic shock to a peptide composition or fraction thereof and determining the development of septic shock in said animal . 41. A method according to claim 39 or 40 wherein said therapeutic effect is further measured by determining relative ratios and/or cytokine activity of lymphocyte, dendritic or antigen presenting cell subset-populations in said animal . 42. A method according to claim 41 wherein said therapeutic effect is further measured by determining enzyme levels in said animal . 43. An immunoregulator selected by a method according to anyone of claims 39 to 42. 44. A pharmaceutical composition comprising an immunoregulator according to claim 43.

Inventors: BENNER ROBBERT, KHAN NISAR AHMED, BENNER, ROBBERT, KHAN, NISAR, AHMED
Applicants: BENNER ROBBERT, KHAN NISAR AHMED, UNIV ERASMUS, BENNER, ROBBERT, ERASMUS UNIVERSITEIT ROTTERDAM, KHAN, NISAR, AHMED
Application year: 2001
Main classification: C07K14
IPC codes: A61K38, A61K39, A61P3, A61P9, A61P11, A61P15, A61P19, A61P25, A61P29, A61P31, A61P33, A61P35, A61P37, A61P43, C07K7, C07K14, G01N33