INHIBITION OF TUMOR NECROSIS FACTOR, PRO-INFLAMMATORY CYTOKINES AND OTHER IMFLAMMATORY RESPONSE MEDIATORS

Information

  • Patent Application
  • 20220313771
  • Publication Number
    20220313771
  • Date Filed
    March 29, 2022
    2 years ago
  • Date Published
    October 06, 2022
    2 years ago
Abstract
Peptide compositions and their use for inhibiting tumor necrosis factor, pro-inflammatory cytokines and other inflammatory response mediators.
Description
FIELD OF THE INVENTION

This disclosure relates generally to the fields of chemistry, life sciences, pharmacy and medicine and more particularly to pharmaceutical preparations and their use in the treatment disease.


BACKGROUND

Cytokines are proteins, peptides or glycoproteins produced in the body by lymphocytes and monocytes. A number of cytokine families have been identified, including chemokines, interferons, interleukins (IL), monokines, lymphokines, tumor necrosis factor and erythropoietin,


Cytokines perform a range of functions, including the triggering and regulating inflammatory responses. Some cytokines are pro-inflammatory while others are anti-inflammatory. Pro-inflammatory cytokines are produced by activated macrophages which are responding to the presence of aberrant cells, foreign substances or pathological invaders such as certain bacteria and viruses.


When large amounts of pro-inflammatory cytokines are produced, a condition known as cytokine storm (also referred to as hypercytokinemia or cytokine release syndrome) can result. Such cytokine storms have been reported to occur in patients suffering from disorders such as graft-versus-host-disease, pancreatitis, cancers, influenzas, mycobacterial infections and viral infections including, most recently, SARS-CoV-2 (also known as COVID-19). A cytokine storm can result in serious damage to cells, tissues and organs and, in severe cases organ failure and death.


Pro-inflammatory and anti-inflammatory cytokines are also involved in the pathogenesis of various autoimmune and other disorders, such as rheumatoid arthritis (RA), osteoarthritis, juvenile arthritis, psoriatic arthritis, plaque psoriasis, ankylosing spondylitis, ulcerative colitis (UC), and Crohn's disease.


Also, chronic pro-inflammatory conditions are associated with many ocular diseases, including dry eye disease, age related macular degeneration and diabetic retinopathy. During this process, tissue resident and peripheral immune cells are activated and contribute to formation of a cytotoxic inflammatory state that causes tissue damage and vision loss.


There exists a need for the development of new therapies to prevent or lessen the effects of pro-inflammatory cytokines in human or animal subjects.


SUMMARY

The present disclosure describes peptide compositions comprising Risuteganib (ALG-1001) or other effective peptides and their uses and associated methods for inhibiting tumor necrosis factor, pro-inflammatory cytokines and other inflammatory response mediators.


In accordance with the present disclosure, compositions comprising Risuteganib (ALG-1001) or other effective peptides are useable for preventing or reducing severity of hypercytokinemia, cytokine release syndrome or cytokine storm in a subject in need thereof.


Further in accordance with the present disclosure, compositions comprising Risuteganib (ALG-1001) or other effective peptides are useable for inhibiting one or more endogenous substance selected from: tumor necrosis factor (TNF), interleukin 6 (IL6), CCL2, ITGAX, CSF1, and SRC, in a in a subject in need thereof.


Further in accordance with the present disclosure, compositions comprising Risuteganib (ALG-1001) or other effective peptides are useable to lessen or otherwise treat inflammatory responses to infectious diseases such as, for example, influenza, mycobacterial infection, viral infection, coronavirus infection, SARS-CoV-2 (COVID-19) infection or pneumonia.


Further in accordance with the present disclosure, compositions comprising Risuteganib (ALG-1001) or other effective peptides are useable to deter or treat autoimmune disorders such as, for example, rheumatoid arthritis (RA), osteoarthritis, juvenile arthritis, psoriatic arthritis, plaque psoriasis, ankylosing spondylitis, ulcerative colitis (UC), and Crohn's disease.


Further in accordance with the present disclosure, compositions comprising Risuteganib (ALG-1001) or other effective peptides are useable to mitigate inflammatory or cytokine-mediated tissue impairment or damage in a human or non-human animal subject who has been diagnosed with a disease or disorder selected from; an influenza, mycobacterial infection, viral infection, coronavirus infection, SARS-CoV-2 (COVID-19) infection, pneumonia, an autoimmune disorder, rheumatoid arthritis (RA), osteoarthritis, juvenile arthritis, psoriatic arthritis, plaque psoriasis, ankylosing spondylitis, ulcerative colitis (UC), or Crohn's disease.


As used herein, the term “patient or “subject” refers to either a human or non-human animals, such as humans, primates, mammals, and vertebrates.


As used herein, the term “treat” or “treating” or “treatment” refers to preventing, eliminating, curing, deterring, reducing the severity or reducing at least one symptom of a condition, disease or disorder.


As used herein, the phrase “effective amount” or “amount effective to” refers to an amount of an agent that produces some desired effect at a reasonable benefit/risk ratio. In certain embodiments, the term refers to that amount necessary or sufficient to bring about the specified treatment or other effect. The effective amount may vary depending on such factors as the disease or condition being treated, the particular composition being administered, or the severity of the disease or condition. Persons of skill in the art may empirically determine the effective amount of a particular agent without necessitating undue experimentation.





BRIEF DESCRIPTION OF THE DRAWINGS

The following figures are included in this patent application and referenced in the following Detailed Description. These figures illustrate certain aspects or embodiments of the present disclosure but do not limit the scope of the present disclosure in any way:



FIG. 1 is a TNF-A pathway diagram showing Risuteganib-Induced Expression Changes in LOG 2-Fold-Change scale.



FIG. 2 is a bar graph showing normalized gene expression (TPM) for TNF, IL6, CCL2, ITGAX, CSF1 and SRC genes following treatment with risuteganib (ALG-1001) or control.



FIG. 3 is a graphic representation showing biological processes which are down-regulated by risuteganib.



FIG. 4 is a bar graph showing biological pathways enriched with genes that are down-regulated by risuteganib.



FIG. 5 is a bar graph showing the effects of risuteganib, pro-inflammatory cytokines, risuteganib+pro-inflammatory cytokines and control on gene expression of CCL2, CCL20, CXCL5, CXCL6, TNFAIP6, TNFRSF11B and SELE.



FIG. 6 is a bar graph showing the effects of risuteganib, pro-inflammatory cytokines, risuteganib+pro-inflammatory cytokines and control on gene expression of CFH, IL6, IL7R and TNFAIP3.





APPENDIX A is a table showing expression levels of one hundred and thirty-five (135) genes in primary human immune cells following treatment with either a) Risuteganib or b) Control.


DETAILED DESCRIPTION

The following detailed description and the accompanying drawings to which it refers are intended to describe some, but not necessarily all, examples or embodiments of the invention. The described embodiments are to be considered in all respects only as illustrative and not restrictive. The contents of this detailed description and the accompanying drawings do not limit the scope of the invention in any way.


Applicant has discovered that, in addition to other previously known effects, the peptide Risuteganib inhibits expression of a number of genes associated with the biosynthesis or elaboration of pro-inflammatory substances.


Risuteganib, a non-natural oligopeptide having the molecular formula C22-H39-N9-O11-S and the following structural formula:




embedded image


Risuteganib has also been referred to by other names, nomenclatures and designations, including: ALG-1001; Glycyl-L-arginylglycyl-3-sulfo-L-alanyl-L-threonyl-L-proline; Arg-Gly-NH—CH(CH2—SO3H)COOH; and Luminate® (Allegro Ophthalmics, LLC, San Juan Capistrano, Calif.).


Risuteganib is an anti-integrin which targets a number of integrins upstream in the oxidative stress pathway, thereby downregulating multiple angiogenic and inflammatory processes, including those associated with hypoxia and oxidative stress. Risuteganib has also been shown to improve mitochondrial function. These previously-known effects of Risuteganib and others are described in U.S. Pat. Nos. 9,018,352; 9,872,886; 9,896,480, 10,307,460; 10,639,347 and 10,590,166 and in United States Patent Application Publication Nos. US/2020/0354402; US/2020/0392181; US/2021/0002328 and US/2021/0085749 as well as co-pending U.S. patent application Ser. No. 16/854,818 entitled Compositions and Methods Useable for Treatment of Dry Eye filed Apr. 21, 2020; Ser. No. 16/938,758 entitled Peptides for Treating Non-Exudative Macular Degeneration And Other Disorders Of The Eye filed Jul. 24, 2020 and Ser. No. 17/193,832 entitled Treatments for Improving or Lessening Impairment of Mitochondrial Function filed Mar. 5, 2021, the entire disclosure of each such patent and patent application being expressly incorporated herein by reference.


Described below are studies showing that Risuteganib (ALG-1001) causes down-regulation of pro-inflammatory genes.


A: Downregulation of TNF-a Pathway, Immune Response and Leukocyte Integrin Genes in Primary Human Immune Cells:


The outcome of this study establishes that risuteganib effectively down-regulates TNF-a pathway, immune response and leukocyte integrin genes thereby elucidating previously unknown therapeutic uses for Risuteganib and related peptides as described below.


Purpose: In this study, RNA-seq was used to unbiasedly identify the genes regulated by risuteganib exposure in primary human immune cells. Analysis of the specific subset of genes regulated by risuteganib enables identification of biological processes and pathways modulated by the oligopeptide


Methods: Primary human immune cells (PBMC) were obtained from a single human donor. The cells were separated into two groups: vehicle or 100 μM risuteganib treatment for 8 hours. After exposure, cells were collected and their total RNA isolated for RNA-seq. The generated reads were then aligned to human reference genome/transcriptome and gene expression quantified for differential expression analysis and fold change calculation. The list of regulated genes was then used to identify biological processes and pathways that are regulated after Risuteganib exposure compared to vehicle control.


Results/Discussion: FIG. 1 shows a summary of transcriptome analysis showing that pro-inflammatory genes are selectively down-regulated after risuteganib treatment. Pathway analysis found many genes associated with TNF-a pro-inflammatory pathway are down-regulated (adjusted p-value=6.22E-3). Where indicated on FIG. 1, genes in the pathway were down-regulated. Since TNF-a pathway activation is implicated in promoting a cytotoxic inflammatory condition, Risuteganib may mediate a reduction of ocular inflammation through suppression of this pathway. In addition, APPENDIX A lists 135 immune response genes which are selectively down-regulated by risuteganib with statistical significance (adjusted p-value=5.43E-7), including TNF (pro-inflammatory cytokine), IL6 (pro-inflammatory cytokine), CCL2 (regulates inflammation), ITGAX (leukocyte-endothelial adhesion), CSF1 (regulates macrophage functions), SRC (recruits and activates immune cells), and others.


Based on the results of this study, risuteganib treatment may be used to inhibit or reduce any or all of the following:

    • Tumor Necrosis Factor (TNF);
    • Interleukin 6 (IL6);
    • Chemokine (C-C motif) ligand 2 (CCL2);
    • Integrin alpha X complement component 3 receptor 4 subunit (ITGAX);
    • Colony stimulating factor 1 (CSF1: and/or
    • Src kinase (SRC).



FIG. 2 and Table 1 (below) summarize the effects of risuteganib treatment on expression of above-listed genes in PMBC.









TABLE 1







The Effects of Risuteganib (ALG-1001)


on TNF-a pathway, Immune Response


and Leukocyte Integrin Genes in PMBC














Mean Expression






Rate






(Normalized as




Gene
Treatment
Fraction Control)
+/− S.D.
















TNF
Control
1
0.078328



TNF
Risuteganib
0.928062
0.044894



IL6
Control
1
0.025266



IL6
Risuteganib
0.928076
0.028744



CCL2
Control
1
0.057688



CCL2
Risuteganib
0.91425
0.096592



ITGAX
Control
1
0.074029



ITGAX
Risuteganib
0.886513
0.081571



CSF1
Control
1
0.066562



CSF1
Risuteganib
0.884149
0.068907



SRC
Control
1
0.05578



SRC
Risuteganib
0.948339
0.032468










Conclusion: Gene expression quantification shows TNF-a pathway, immune response and leukocyte integrin genes are selectively down-regulated by risuteganib in PMBC. Suppression of these pro-inflammatory and integrin genes may provide a mechanism for not only treatment or reduction of existing inflammation, but also to inhibit production of pro-inflammatory cytokines, including those which involve the TNF-a pro-inflammatory pathway, thereby providing a prophylactic or prevention strategy for avoiding predicted further inflammatory events, such as the expected elaboration of pro-inflammatory cytokines in subjects suffering from certain microbial infections.


B. Effect of Risuteganib (ALG-1001) in Human Umbilical Vein Endothelial Cells (HUVEC) Treated with Hypoxia and Cytokines


Purpose: A chronic pro-inflammatory condition is associated with many ocular diseases, including DED, AMD, and DR. During this process, tissue resident and peripheral immune cells are activated and contribute to formation of a cytotoxic inflammatory state that causes tissue damage and vision loss. In this study, RNA-seq was used to unbiasedly identify the genes regulated by risuteganib treatment in human endothelial cells exposed to hypoxia and cytokines. Analysis of the specific subset of genes regulated by risuteganib enables identification of biological processes and pathways modulated by the oligopeptide.


Methods: Human umbilical vein endothelial cells (HUVEC) were used between passage 3 to 5. All cells were grown at 3% O2 to stimulate endothelial cells into a more angiogenic state. Cells were divided into four treatment groups: control, cytokines for 48 hours, 500 uM risuteganib for 24 hours, and cytokines for 48 hours with 500 uM risuteganib for 24 hours. Cytokine treatment contains both human TNF-a and IL-1b at 1 ng/mL at final concentration. After exposure, cells were collected and their total RNA isolated for RNA-seq. The generated reads were then aligned to human reference genome/transcriptome and gene expression quantified for differential expression analysis and fold change calculation. The list of regulated genes was then used to identify biological processes and pathways that are regulated after risuteganib exposure with cytokine exposure.


Results: The Results of this study are summarized in the following Table 2, below:









TABLE 2







The Effects of Risuteganib and Risuteganib + Cytokines


(TNF-a and IL-1 b)


on Gene Regulation in HUVEC












Mean





Expression





Rate





(Normalized





as Fraction



Gene
Treatment
Control)
+/− S.D.













CCL2 
Control
1
0.092598


CCL2 
Risuteganib
0.869558
0.078457


CCL2 
Cytokine
51.63427
1.767969


CCL2 
Cytokine + Risuteganib
46.0204
0.644486


CCL20
Control
1
0.507576


CCL20
Risuteganib
0.632798
0.253193


CCL20
Cytokine
150.401
7.777895


CCL20
Cytokine + Risuteganib
128.2179
8.306375


CXCL5
Control
1
0.512105


CXCL5
Risuteganib
1.165991
0.295285


CXCL5
Cytokine
266.0156
16.03164


CXCL5
Cytokine + Risuteganib
216.416
13.63354


CXCL6
Control
1
0.149419


CXCL6
Risuteganib
0.969925
0.107909


CXCL6
Cytokine
270.3548
6.952794


CXCL6
Cytokine + Risuteganib
234.6388
10.90567


TNFAIP6
Control
1
2.236068


TNFAIP6
Risuteganib
0
0


TNFAIP6
Cytokine
384.3986
32.88868


TNFAIP6
Cytokine + Risuteganib
288.1282
33.69941


TNFRSF11B
Control
1
0.431859


TNFRSF11B
Risuteganib
0.893131
0.366375


TNFRSF11B
Cytokine
87.60615
6.256886


TNFRSF11B
Cytokine + Risuteganib
75.2753
5.878845


SELE
Control
1
0.28818


SELE
Risuteganib
0.702198
0.225528


SELE
Cytokine
45.17518
2.549873


SELE
Cytokine + Risuteganib
39.83155
1.585678


CFH
Control
1
0.096575


CFH
Risuteganib
0.970557
0.066617


CFH
Cytokine
1.83209
0.052118


CFH
Cytokine + Risuteganib
1.572239
0.067919


IL6
Control
1
0.062932


IL6
Risuteganib
0.99825
0.095579


IL6
Cytokine
11.788
0.817918


IL6
Cytokine + Risuteganib
10.55233
0.392164


IL7R
Control
1
0.082799


IL7R
Risuteganib
1.035881
0.122685


IL7R
Cytokine
6.91416
0.326639


IL7R
Cytokine + Risuteganib
5.775983
0.19886


TNFAIP3
Control
1
0.151394


TNFAIP3
Risuteganib
0.94598
0.027909


TNFAIP3
Cytokine
12.04407
0.584789


TNFAIP3
Cytokine + Risuteganib
10.74795
0.547217









Under cytokine-activated condition, risuteganib had a moderate effect on reversing the transcriptome changes associated with cytokine treatment (Pearson's r=−0.267). 85% (342/403) of genes regulated by both risuteganib and cytokines are regulated in opposite directions, indicating effect of risuteganib is reverse of cytokines. As shown graphically in FIG. 3, risuteganib treatment down-regulated genes in several immune system biological processes up-regulated by cytokines, including inflammatory response, response to cytokine, and cytokine-mediated signaling pathway. As summarized in FIG. 4, pathway analysis found that ten (10) pathways were down-regulated by risuteganib, including cytokine-cytokine receptor interaction, TNF signaling pathway, and IL-17 signaling pathway, all of which are up-regulated by cytokines. Also, as seen in FIGS. 4 and 5, immune genes up-regulated by cytokines and down-regulated by risuteganib include CCL2, CCL20, CXCL5, CXCL6, TNFAIP6, TNFRSF11B, SELE, CFH, IL6, IL7R, and TNFAIP3.


Conclusion: risuteganib was found effective in suppressing the effect of TNF-a and IL-1b on the endothelial cell gene expression. Multiple inflammatory system biological processes and pathways are regulated with significance.


Dosage and Route of Administration

The peptides disclosed herein may be administered at any effective dosages, as a single dose or multiple doses, and by any suitable routes of administration. For some systemic treatments, administration by injection or intravenous infusion may be preferable. By way of example, risuteganib has been administered to dogs by intravenous infusion at dosages of 1.0 mg/kg, 5.0 mg/kg and 8.0 mg/kg without significant toxicity or side effects. Accordingly, in at least some applications, risuteganib may be administered, for example, by intravenous infusion at a dosage ranging from 1 mg/kg to 8 mg/kg. Other dosage levels and other routes of administration may also be suitable and effective.


Effective Peptides Other than Risuteganib (ALG-1001)

The effects and mechanisms of action referred to in this provisional patent application are not necessarily limited to Risuteganib. Unless specified, the “other peptides”, as referenced herein may include any of the peptides described in the above-incorporated patents and applications and/or specified in this disclosure which exhibit the herein-described therapeutic effects and/or mechanisms of action. For example, peptides described in United States Patent Application Publication Nos. US/2020/0354402 and US/2020/0392181, the entire disclosures of which are expressly incorporated herein by reference, may reasonably be expected to also exhibit the herein described effects and/or mechanisms of action. Specific examples of other peptides believed to exhibit some or all of these effects or mechanisms include, but are not necessarily limited to, comprise peptides that consist of or comprise an amino acid sequence having the formula:





Y—X—Z

    • wherein: Y=R, H, K, Cys(acid), G or D;
    • X=G, A, Cys(acid), R, G, D or E; and
    • Z=Cys(acid), G, C, R, D, N or E.


Such peptides may comprise or consist of the amino acid sequences; R-G-Cys(Acid), R-R-Cys, R-CysAcid)-G, Cys(Acid)-R-G, Cys(Acid)-G-R, R-G-D, R-G-Cys(Acid). H-G-Cys(Acid), R-G-N, D-G-R, R-D-G, R-A-E, K-G-D, R-G-Cys(Acid)-G-G-G-D-G, Cyclo-{R-G-Cys(acid)-F-N-Me-V}, R-A-Cys (Acid), R-G-C, K-G-D, Cys(acid)-R-G, Cys(Acid)-G-R, Cyclo-{R-G-D-D-F-NMe-V}, H-G-Cys(acid) and salts thereof. Possible salts include but are not limited to acetate, trifluoroacetate (TFA) and hydrochloride salts.


Also, other peptides believed to exhibit some or all of these effects or mechanisms include, but are not necessarily limited to, those that consist of or comprise comprises linear or cyclic forms of Glycinyl-Arginyl-Glycinyl-Cysteic acid-Threonyl-Proline-COOH or which have the formula:





XI-R-G-Cysteic Acid-X

    • wherein: X and XI are selected from: Phe-Val-Ala, -Phe-Leu-Ala, -Phe-Val-Gly, -Phe-Leu-Gly, -Phe-Pro-Gly, -Phe-Pro-Ala, -Phe-Val; or from Arg, Gly, Cysteic acid, Phe, Val, Ala, Leu, Pro, Thr and salts, and any combinations of any D-isomers and L-isomers thereof.


It is to be appreciated that, although the disclosure set forth above refers to reference to certain examples or embodiments, various additions, deletions, alterations and modifications may be made to those described examples and embodiments without departing from the intended spirit and scope of the invention. For example, any elements, steps, members, components, compositions, reactants, parts or portions of one embodiment or example may be incorporated into or used with another embodiment or example, unless otherwise specified or unless doing so would render that embodiment or example unsuitable for its intended use. Also, where the steps of a method or process have been described or listed in a particular order, the order of such steps may be changed unless otherwise specified or unless doing so would render the method or process unsuitable for its intended purpose. Additionally, the elements, steps, members, components, compositions, reactants, parts or portions of any invention or example described herein may optionally exist or be utilized in the absence or substantial absence of any other element, step, member, component, composition, reactant, part or portion unless otherwise noted. All novel and reasonable additions, deletions, modifications and alterations are to be considered as equivalents of the described examples and embodiments and are to be included within the scope of the following claims.









APPENDIX A







The Effects of Risuteganib and Control on Expression


of One Hundred and Thirty-five (135) Genes in PBMC














Mean






Expression






Rate






(Normalized






as Fraction




Gene
Treatment
Control)
+/− S.D.
















ADGRB1
Control
1
0.058372



ADGRB1
Risuteganib
0.844405
0.052747



OSCAR
Control
1
0.099458



OSCAR
ALG-1001
0.77197
0.05033



FCGRT
Control
1
0.046447



FCGRT
Risuteganib
0.855848
0.045277



ITGAX
Control
1
0.074029



ITGAX
Risuteganib
0.886513
0.081571



STXBP2
Control
1
0.041161



STXBP2
Risuteganib
0.888464
0.042056



FOS
Control
1
0.095025



FOS
Risuteganib
0.821989
0.059033



BCL3
Control
1
0.02967



BCL3
Risuteganib
0.891825
0.036628



ARRB2
Control
1
0.025431



ARRB2
Risuteganib
0.9014
0.043735



TCIRG1
Control
1
0.04854



TCIRG1
Risuteganib
0.891973
0.04185



DOK3
Control
1
0.091977



DOK3
Risuteganib
0.892942
0.047292



MYO1G
Control
1
0.043587



MYO1G
Risuteganib
0.921445
0.027965



ANPEP
Control
1
0.035974



ANPEP
Risuteganib
0.908151
0.030869



RARA
Control
1
0.049335



RARA
Risuteganib
0.892585
0.074439



NA
Control
1
0.055337



NA
Risuteganib
0.907738
0.044992



CSF1
Control
1
0.066562



CSF1
Risuteganib
0.884149
0.068907



TICAM1
Control
1
0.029824



TICAM1
Risuteganib
0.938197
0.023824



GAA
Control
1
0.050518



GAA
Risuteganib
0.912103
0.0355



IL1RN
Control
1
0.084993



IL1RN
Risuteganib
0.846887
0.053414



ZYX
Control
1
0.051378



ZYX
Risuteganib
0.913904
0.053527



KCNN4
Control
1
0.05996



KCNN4
Risuteganib
0.912656
0.036786



ERCC1
Control
1
0.063176



ERCC1
Risuteganib
0.878369
0.039776



RAPGEF1
Control
1
0.049238



RAPGEF1
Risuteganib
0.945892
0.043312



IGLV2-23
Control
1
0.455588



IGLV2-23
Risuteganib
0.45035
0.149072



CYBA
Control
1
0.051461



CYBA
Risuteganib
0.886884
0.042965



SLC11A1
Control
1
0.099429



SLC11A1
Risuteganib
0.88423
0.065205



FGR
Control
1
0.027032



FGR
Risuteganib
0.922169
0.029962



LTB4R
Control
1
0.124416



LTB4R
Risuteganib
0.833961
0.044173



TRPM2
Control
1
0.075297



TRPM2
Risuteganib
0.939079
0.018547



GRN
Control
1
0.02934



GRN
Risuteganib
0.92211
0.054538



CCL3L1
Control
1
0.062259



CCL3L1
Risuteganib
0.8739
0.054467



SRC
Control
1
0.05578



SRC
Risuteganib
0.948339
0.032468



NFKBID
Control
1
0.082527



NFKBID
Risuteganib
0.920335
0.051186



PI3
Control
1
0.088975



PI3
Risuteganib
0.915827
0.01149



IFI30
Control
1
0.056415



IFI30
Risuteganib
0.831835
0.12747



PLD2
Control
1
0.097727



PLD2
Risuteganib
0.921536
0.075338



CCL22
Control
1
0.084677



CCL22
Risuteganib
0.919743
0.028328



HIST2H2BE
Control
1
0.097352



HIST2H2BE
Risuteganib
0.852665
0.051382



CDC37
Control
1
0.032816



CDC37
Risuteganib
0.934954
0.037478



TNFRSF14
Control
1
0.096816



TNFRSF14
Risuteganib
0.923904
0.059025



IL6
Control
1
0.025266



IL6
Risuteganib
0.928076
0.028744



KCNAB2
Control
1
0.055173



KCNAB2
Risuteganib
0.95884
0.057164



HLX
Control
1
0.087172



HLX
Risuteganib
0.908398
0.030569



IRF5
Control
1
0.048416



IRF5
Risuteganib
0.92929
0.042144



STK10
Control
1
0.041614



STK10
Risuteganib
0.96059
0.034657



TNF
Control
1
0.078328



TNF
Risuteganib
0.928062
0.044894



GALNS
Control
1
0.04531



GALNS
Risuteganib
0.935622
0.067001



SOCS1
Control
1
0.069235



SOCS1
Risuteganib
0.928932
0.055177



NFKB2
Control
1
0.043121



NFKB2
Risuteganib
0.967454
0.039104



BAG6
Control
1
0.023212



BAG6
Risuteganib
0.952246
0.04458



CEBPB
Control
1
0.10748



CEBPB
Risuteganib
0.875196
0.037858



TOM1
Control
1
0.038895



TOM1
Risuteganib
0.921097
0.033928



CXCL2
Control
1
0.155699



CXCL2
Risuteganib
0.85238
0.017093



STX4
Control
1
0.014365



STX4
Risuteganib
0.948985
0.037898



UNC13D
Control
1
0.07147



UNC13D
Risuteganib
0.957742
0.036487



CYB5R3
Control
1
0.037882



CYB5R3
Risuteganib
0.956411
0.043122



LILRB3
Control
1
0.051815



LILRB3
Risuteganib
0.939631
0.0412



FCER2
Control
1
0.267912



FCER2
Risuteganib
0.768577
0.048754



SUPT6H
Control
1
0.067635



SUPT6H
Risuteganib
0.956802
0.045627



CTSA
Control
1
0.036818



CTSA
Risuteganib
0.940959
0.052579



HLA-DPB1
Control
1
0.046857



HLA-DPB1
Risuteganib
0.929475
0.046115



MAP2K7
Control
1
0.043733



MAP2K7
Risuteganib
0.94205
0.069067



ARSA
Control
1
0.075754



ARSA
Risuteganib
0.923934
0.104336



CXCL1
Control
1
0.05192



CXCL1
Risuteganib
0.92163
0.024911



ATP6V0A1
Control
1
0.068929



ATP6V0A1
Risuteganib
0.943167
0.048355



TYROBP
Control
1
0.038748



TYROBP
Risuteganib
0.932938
0.040897



IGLC2
Control
1
0.130993



IGLC2
Risuteganib
0.846731
0.111736



OSM
Control
1
0.176878



OSM
Risuteganib
0.830581
0.0824



MCOLN1
Control
1
0.058736



MCOLN1
Risuteganib
0.9403
0.04619



ALDH3B1
Control
1
0.072006



ALDH3B1
Risuteganib
0.891177
0.091234



PRKCD
Control
1
0.040014



PRKCD
Risuteganib
0.963149
0.023815



PLAUR
Control
1
0.063841



PLAUR
Risuteganib
0.910427
0.049279



PSTPIP1
Control
1
0.091299



PSTPIP1
Risuteganib
0.940931
0.057366



TFE3
Control
1
0.04315



TFE3
Risuteganib
0.973128
0.040434



LIF
Control
1
0.281398



LIF
Risuteganib
0.793918
0.022479



RNF19B
Control
1
0.079259



RNF19B
Risuteganib
0.946929
0.052555



NCF4
Control
1
0.061551



NCF4
Risuteganib
0.943299
0.075669



LIMK1
Control
1
0.066869



LIMK1
Risuteganib
0.928497
0.041716



BRI3
Control
1
0.044619



BRI3
Risuteganib
0.939683
0.041781



OTUB1
Control
1
0.043505



OTUB1
Risuteganib
0.94449
0.035608



DGAT1
Control
1
0.072854



DGAT1
Risuteganib
0.930801
0.085853



MMP25
Control
1
0.118261



MMP25
Risuteganib
0.895877
0.069705



CKAP4
Control
1
0.067979



CKAP4
Risuteganib
0.913339
0.050241



RAB5C
Control
1
0.058242



RAB5C
Risuteganib
0.924608
0.051347



TNFSF9
Control
1
0.062125



TNFSF9
Risuteganib
0.841613
0.099839



MMP9
Control
1
0.107033



MMP9
Risuteganib
0.912519
0.075715



NBEAL2
Control
1
0.118057



NBEAL2
Risuteganib
0.943152
0.062258



SLC26A6
Control
1
0.038814



SLC26A6
Risuteganib
0.945244
0.067688



GPR84
Control
1
0.046945



GPR84
Risuteganib
0.923137
0.087878



TREM1
Control
1
0.04516



TREM1
Risuteganib
0.908418
0.084485



NPLOC4
Control
1
0.032732



NPLOC4
Risuteganib
0.974751
0.036537



MCEMP1
Control
1
0.124267



MCEMP1
Risuteganib
0.860031
0.089296



TNFRSF4
Control
1
0.027581



TNFRSF4
Risuteganib
0.942656
0.03893



RHOG
Control
1
0.018798



RHOG
Risuteganib
0.959166
0.01943



MUCL1
Control
1
0.268305



MUCL1
Risuteganib
0.686558
0.175156



AGER
Control
1
0.067781



AGER
Risuteganib
0.913557
0.107937



GLA
Control
1
0.044517



GLA
Risuteganib
0.963933
0.026448



CCL4L2
Control
1
0.044856



CCL4L2
Risuteganib
0.938898
0.040848



HLA-DQB1
Control
1
0.048138



HLA-DQB1
Risuteganib
0.955383
0.050298



LILRB4
Control
1
0.09098



LILRB4
Risuteganib
0.896959
0.100792



FCER1G
Control
1
0.027343



FCER1G
Risuteganib
0.928856
0.066972



CXCL16
Control
1
0.028739



CXCL16
Risuteganib
0.932613
0.074639



CD14
Control
1
0.138012



CD14
Risuteganib
0.889879
0.044699



DYSF
Control
1
0.160099



DYSF
Risuteganib
0.858715
0.089913



SIRPA
Control
1
0.029956



SIRPA
Risuteganib
0.965712
0.030979



S100A11
Control
1
0.038815



S100A11
Risuteganib
0.949181
0.031033



CLCF1
Control
1
0.120667



CLCF1
Risuteganib
0.897544
0.039292



CSF3
Control
1
0.157957



CSF3
Risuteganib
0.861451
0.075777



PILRA
Control
1
0.037922



PILRA
Risuteganib
0.945718
0.056582



CTSD
Control
1
0.069531



CTSD
Risuteganib
0.917261
0.054053



IGHD
Control
1
0.139459



IGHD
Risuteganib
0.873078
0.10457



NRROS
Control
1
0.041292



NRROS
Risuteganib
0.920192
0.068063



CD300A
Control
1
0.050692



CD300A
Risuteganib
0.913688
0.087832



IL4R
Control
1
0.037254



IL4R
Risuteganib
0.97475
0.055306



GPX1
Control
1
0.055589



GPX1
Risuteganib
0.925449
0.055385



CCL4
Control
1
0.04192



CCL4
Risuteganib
0.960459
0.023396



TNFRSF1B
Control
1
0.046065



TNFRSF1B
Risuteganib
0.960367
0.046545



TYK2
Control
1
0.050676



TYK2
Risuteganib
0.971082
0.089442



SH2B2
Control
1
0.088633



SH2B2
Risuteganib
0.878952
0.129356



MT2A
Control
1
0.086044



MT2A
Risuteganib
0.921581
0.034426



TRAF3IP2
Control
1
0.058812



TRAF3IP2
Risuteganib
0.947174
0.027807



LRP1
Control
1
0.092433



LRP1
Risuteganib
0.940487
0.053505



HEXIM1
Control
1
0.04086



HEXIM1
Risuteganib
0.965347
0.033706



PFKL
Control
1
0.079352



PFKL
Risuteganib
0.980421
0.044244



ADGRG3
Control
1
0.201159



ADGRG3
Risuteganib
0.838064
0.099337



CCL2
Control
1
0.057688



CCL2
Risuteganib
0.91425
0.096592



ZP3
Control
1
0.138212



ZP3
Risuteganib
0.84915
0.070134



NFAM1
Control
1
0.146323



NFAM1
Risuteganib
0.894765
0.077453



CSTB
Control
1
0.039313



CSTB
Risuteganib
0.964884
0.027467



ITGAL
Control
1
0.041587



ITGAL
Risuteganib
0.984212
0.031086



PDXK
Control
1
0.051707



PDXK
Risuteganib
0.973002
0.0151



RAC2
Control
1
0.028325



RAC2
Risuteganib
0.976281
0.027917



NECTIN2
Control
1
0.052502



NECTIN2
Risuteganib
0.94786
0.060706



TNFRSF13B
Control
1
0.174763



TNFRSF13B
Risuteganib
0.850784
0.102807



PRAM1
Control
1
0.15564



PRAM1
Risuteganib
0.866123
0.082739



ADGRE2
Control
1
0.11165



ADGRE2
Risuteganib
0.923001
0.089589



AKIRIN2
Control
1
0.044164



AKIRIN2
Risuteganib
0.969677
0.031246



LFNG
Control
1
0.037702



LFNG
Risuteganib
0.973438
0.033542



CD63
Control
1
0.031622



CD63
Risuteganib
0.948686
0.044778



SP2
Control
1
0.057673



SP2
Risuteganib
0.961341
0.064253



ITGAM
Control
1
0.06632



ITGAM
Risuteganib
0.947304
0.07723



ZC3H12A
Control
1
0.042122



ZC3H12A
Risuteganib
0.975673
0.028964



CYP27B1
Control
1
0.0837



CYP27B1
Risuteganib
0.862336
0.153154



QSOX1
Control
1
0.060581



QSOX1
Risuteganib
0.935494
0.055073



ORAI1
Control
1
0.045546



ORAI1
Risuteganib
0.971417
0.062968



LTBR
Control
1
0.042272



LTBR
Risuteganib
0.964366
0.058224



DNAJC5
Control
1
0.036475



DNAJC5
Risuteganib
0.969041
0.019835



RELB
Control
1
0.038465



RELB
Risuteganib
0.964659
0.028778



HRAS
Control
1
0.048436



HRAS
Risuteganib
0.923784
0.065208



MAN2B1
Control
1
0.069293



MAN2B1
Risuteganib
0.970587
0.045087



FABP5
Control
1
0.0887



FABP5
Risuteganib
0.871322
0.124053



ADAM8
Control
1
0.064273



ADAM8
Risuteganib
0.970756
0.031124









Claims
  • 1. A method for inhibiting a pro-inflammatory cytokines in a subject in need thereof, said method comprising the step: of administering to the subject a therapeutically effective amount risuteganib.
  • 2. A method for preventing or reducing severity of hypercytokinemia, cytokine release syndrome or cytokine storm in a subject in need thereof, said method comprising the step of: administering to the subject a therapeutically effective amount of risuteganib.
  • 3. A method for inhibiting one or more endogenous substance selected from: tumor necrosis factor (TNF), interleukin 6 (IL6), CCL2, ITGAX, CSF1, and SRC, in a in a subject in need thereof, said method comprising the step of: administering to the subject a therapeutically effective amount of risuteganib.
  • 4. A method according to any of claims 1 through 3 performed in the treatment of an infectious disease.
  • 5. A method according to claim 4 wherein the infectious disease comprises: an influenza, mycobacterial infection, viral infection, coronavirus infection, SARS-CoV-2 (COVID-19) infection or pneumonia.
  • 6. A method according to any of claims 1 through 3 performed in treatment of an autoimmune disorder.
  • 7. A method according to claim 6 wherein the autoimmune disorder comprises: rheumatoid arthritis (RA), osteoarthritis, juvenile arthritis, psoriatic arthritis, plaque psoriasis, ankylosing spondylitis, ulcerative colitis (UC), and Crohn's disease.
  • 8. A method according to any of claim 1, 2 or 3 performed to mitigate inflammation or cytokine-mediated tissue impairment or damage in the subject following diagnosis of diagnosed with a disease or disorder selected from; an influenza, mycobacterial infection, viral infection, coronavirus infection, SARS-CoV-2 (COVID-19) infection, pneumonia, an autoimmune disorder, rheumatoid arthritis (RA), osteoarthritis, juvenile arthritis, psoriatic arthritis, plaque psoriasis, ankylosing spondylitis, ulcerative colitis (UC), or Crohn's disease.
  • 9.-15. (canceled)
RELATED APPLICATION

This patent application claims priority to U.S. Provisional Patent Application No. 63/167,879 entitled Inhibition of Tumor Necrosis Factor, Pro-Inflammatory Cytokines and Other Inflammatory Response Mediators filed Mar. 30, 2021, the entire disclosure of which is expressly incorporated herein by reference.

Provisional Applications (1)
Number Date Country
63167879 Mar 2021 US