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Celiac Disease Drug Pipeline — PatSnap Eureka

Celiac Disease Drug Pipeline — PatSnap Eureka
Celiac Disease Drug Pipeline

Celiac Disease Drug Pipeline: TG2 Inhibitors, IL-15 Blockade & Gluten Detoxification

Celiac disease affects approximately 1% of Western populations with a lifelong gluten-free diet as the only standard of care. Explore the emerging pharmacological pipeline — from transglutaminase inhibitors to antigen-specific immunotherapy — through the lens of global patent intelligence.

Celiac Disease Drug Pipeline: Therapeutic Modalities by Patent Filing Volume — Anti-IL-15 (Amgen 6+ filings), Antigen Immunotherapy (5 assignees), TG2 Inhibitors (2 assignees), Microbial Delivery (8 jurisdictions), JAK Inhibitors (2 filings), Gluten Sequestration (2 filings) Bar chart showing the relative patent filing activity across six major therapeutic modalities in the celiac disease drug pipeline, derived from patent analysis via PatSnap Eureka. Anti-IL-15 antibody approaches led by Amgen show the highest filing volume with 6+ jurisdictions. Anti-IL-15 6+ filings Antigen IT 5 assignees Microbial 8 jurisdictions TG2 Inhibitors 2 assignees JAK Inhibitors 2 filings Gluten Seq. 2 filings

Source: PatSnap Eureka patent analysis · CeD pipeline dataset

~1%
Western population affected by celiac disease
90%
CeD patients carry HLA-DQ2 haplotype
6+
Amgen anti-IL-15 patent jurisdictions (2017–2024)
100mg
Daily TG2 inhibitor dose suppressing gluten-induced mucosal changes
Disease & Target Overview

Three Principal Molecular Targets Driving the Celiac Disease Drug Pipeline

Celiac disease (CeD) is a chronic T cell–mediated autoimmune enteropathy triggered by dietary gluten in genetically susceptible HLA-DQ2/DQ8-positive individuals. The only current standard of care is a lifelong gluten-free diet (GFD). According to WHO and multiple retrieved patent filings, the absence of disease-modifying pharmacotherapy has driven extensive IP and academic innovation across multiple mechanistic axes.

Retrieved results consistently identify tissue transglutaminase 2 (TG2) as the central enzymatic autoantigen in CeD pathogenesis. TG2 deamidates glutamine residues in partially digested gluten-derived peptides — gliadin, glutenin, hordein, secalin — converting them into high-affinity ligands for HLA-DQ2.5 and HLA-DQ8 molecules expressed on antigen-presenting cells. This deamidation step is prerequisite for activation of disease-specific CD4+ effector memory T cells in the lamina propria. Anti-tTG2 autoantibodies are established serological biomarkers of active disease.

IL-15, a cytokine overexpressed in lamina propria and intestinal epithelium of active CeD patients, is correlated with mucosal damage severity. Retrieved data from Amgen and Cephalon patents explicitly frame IL-15 dysregulation as a hallmark of CeD and refractory CeD (RCD). The NIH has catalogued IL-15 as a key driver of intraepithelial lymphocyte expansion in autoimmune enteropathies.

The HLA-DQ2.5/DQ8 antigen presentation axis is targeted by anti-HLA-DQ2.5 antibodies (Chugai Seiyaku) and antigen-specific peptide immunotherapies (Immusant, BTG International, DBV Technologies). Approximately 90% of CeD patients carry HLA-DQ2 and 5–10% carry HLA-DQ8, as cited across multiple retrieved patents. Explore the full patent landscape analysis capability on PatSnap.

TG2
Central enzymatic autoantigen; deamidates gliadin peptides creating HLA-DQ2/DQ8 ligands
IL-15
Master cytokine driving IEL expansion and mucosal damage in CeD and RCD
DQ2/8
HLA restriction elements determining which deamidated gliadin peptides are immunogenic
RCD
Refractory celiac disease — highest-risk unmet need with dedicated pipeline modalities
Additional Targets Retrieved
  • SMAD7/TGF-β signaling (Nogra Pharma)
  • KIR3DL2 on innate T cells (Innate Pharma)
  • JAK kinases (University of California)
  • Aryl hydrocarbon receptor (AhR) pathway
  • Zonulin/CXCR3 intestinal permeability
Innovation Intelligence

Patent Activity Across the Celiac Disease Pipeline

Key data signals extracted from patent filings across therapeutic modalities and molecular targets in this dataset.

HLA Haplotype Distribution in Celiac Disease Patients

Approximately 90% of CeD patients carry HLA-DQ2; 5–10% carry HLA-DQ8 — the genetic restriction elements determining peptide immunogenicity, cited across multiple retrieved patents.

HLA Haplotype Distribution in Celiac Disease: HLA-DQ2 ~90%, HLA-DQ8 5-10%, Other/None ~5% Donut chart showing HLA haplotype prevalence among celiac disease patients. HLA-DQ2 accounts for approximately 90% of cases, HLA-DQ8 for 5–10%, and a small proportion carry neither. Data cited across multiple patent filings analysed via PatSnap Eureka. HLA Haplotypes HLA-DQ2 ~90% HLA-DQ8 5–10% Other ~5%

Amgen Anti-IL-15 Dosing Range (EP Filing)

The Amgen EP patent specifies anti-IL-15 antibody doses of 4–16 mg/kg in 1–6 unit doses at 1–12 week intervals, covering CeD, RCD Type I, and RCD Type II.

Amgen Anti-IL-15 Dosing Range: Low 4 mg/kg, Mid 8 mg/kg, Mid-High 12 mg/kg, High 16 mg/kg — administered in 1–6 unit doses at 1–12 week intervals Bar chart illustrating the anti-IL-15 antibody dosing range disclosed in Amgen's EP patent filing for celiac disease treatment, ranging from 4 mg/kg to 16 mg/kg. Data sourced from PatSnap Eureka patent analysis. 16 12 8 4 mg/kg 4 mg/kg Low 8 mg/kg Mid 12 mg/kg Mid-High 16 mg/kg High Amgen EP Filing — 1–6 unit doses · 1–12 week intervals · SC or IV

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Therapeutic Modalities

12 Distinct Pharmacological Approaches in the Celiac Disease Pipeline

Patent activity in this dataset spans small molecules, biologics, engineered microbes, antisense oligonucleotides, and antigen-specific tolerization strategies.

Small Molecule · TG2 Inhibition

Transglutaminase 2 (TG2) Inhibitors

Dr. Falk Pharma GmbH's 2025 WO filing discloses a personalized TG2 inhibitor regimen stratified by HLA-DQ haplotype. Transcriptomic analysis in a gluten challenge model showed that 100 mg/day of TG2 inhibitor "Compound 1" suppressed virtually all gluten-induced mucosal gene expression changes. University of Debrecen covers diagnostic and therapeutic targeting of the celiac-specific transglutaminase epitope.

Preclinical → Early Clinical (inferred)
Biologic · Cytokine Blockade

Anti-IL-15 Antibody Therapy

Amgen holds the most jurisdictionally expansive anti-IL-15 IP estate — 6+ filings (US, CA, WO, AU, EP, IN, MX; 2016–2024) — covering CeD, RCD Types I & II, and NCGS. The EP filing specifies dosing at 4–16 mg/kg in 1–6 unit doses at 1–12 week intervals. Cephalon's DISC0280 antibody targets both free IL-15 and the IL-15/IL-15Rα complex, with endpoints including improved villus-to-crypt ratio and reduced IEL counts.

Clinical-stage signals (inferred)
Peptide Vaccine · Tolerization

Antigen-Specific Peptide Immunotherapy

Immusant discloses a three-peptide combination (DQ2-α-I, DQ2-α-II, DQ2-α-III epitopes) across multiple jurisdictions. BTG International covers deamidated peptide epitopes including oat-derived sequences inducing IFN-γ responses. DBV Technologies' 2025 WO filing introduces epicutaneous skin-patch delivery of multi-isoform gliadin epitopes for repeated tolerization — a novel route for CeD immunotherapy.

Clinical investigation signals (Immusant)
Microbial · Gene Therapeutic

Engineered Lactococcus lactis (IL-10 + Antigen)

Intrexon Actobiotics NV / Precigen ActoBio holds the broadest multi-jurisdictional family in this dataset (WO, CA, IN, AU, US, JP, KR, CN; 2021–2023). Genetically engineered L. lactis (strain SAGX0868) chromosomally co-expresses IL-10 and deamidated HLA-DQ2/DQ8 gliadin epitopes, combining local immunosuppression with antigen-specific tolerization via oral delivery.

Advanced preclinical → Clinical (inferred)
Biologic · Selective Immunosuppression

Anti-HLA-DQ2.5 Antibodies

Chugai Seiyaku Kabushiki Kaisha (IL, 2023) discloses antibodies engineered to bind specifically to HLA-DQ2.5/gluten peptide complexes — not to HLA-DQ2.5 bound to irrelevant peptides — thereby selectively blocking gluten-specific T cell activation without broad immunosuppression. This is a precision approach to the antigen presentation axis.

2023 filing — early stage
Small Molecule · Kinase Inhibition

JAK Inhibitors for CeD & RCD

The Regents of the University of California (WO 2022, US 2024) disclose JAK inhibitor therapy for CeD and especially RCD, framed as both anti-inflammatory and lymphoma-preventive in RCD Type II — an unmet need not addressed by TG2 inhibitors or antigen-specific therapies. May be used with or as a substitute for GFD. Explore the life sciences IP intelligence platform for deeper kinase inhibitor analysis.

WO 2022 + US 2024 active filings
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Emerging & Niche Modalities

Beyond Antibodies: Oligonucleotides, Nanoparticles, and Receptor Agonists

Retrieved patent data signals innovation across less conventional but mechanistically distinct therapeutic axes in celiac disease.

🧬

SMAD7 Antisense Oligonucleotide (Nogra Pharma)

Nogra Pharma's multi-jurisdictional family (WO, US, CA) covers SMAD7 antisense oligonucleotides for CeD, restoring TGF-β anti-inflammatory signaling by relieving SMAD7-mediated inhibition. Patient-level dose escalation and discontinuation criteria are described — consistent with a clinical development framework. US and CA status listed as inactive, suggesting possible discontinuation.

⚗️

Tolerogenic Nanoparticles — Gliadin IMPs (Cour Pharmaceuticals)

Cour Pharmaceuticals discloses immune-modifying particles (IMPs) encapsulating gliadin antigenic material, designed to tolerize the immune system toward gliadin antigens specifically in refractory CeD. This nanoparticle-mediated antigen-specific tolerance induction approach is distinct from soluble peptide vaccines.

🛡️

KIR3DL2 Targeting for Refractory CeD (Innate Pharma)

Innate Pharma (WO, 2016) discloses KIR3DL2-targeting agents specifically for RCD, where aberrant innate-like T cell populations expressing KIR3DL2 are implicated in disease progression and enteropathy-associated T-cell lymphoma (EATL) risk. This represents a targeted approach to the most severe CeD complication.

🌿

Aryl Hydrocarbon Receptor (AhR) Agonists

Institut National de Recherche pour l'Agriculture, l'Alimentation et l'Environnement (France) discloses AhR agonists, bacterial probiotics with AhR activity, and IL-22 agonists for gluten-induced gastrointestinal diseases. AhR activation is proposed to restore mucosal homeostasis and reduce inflammatory T cell activity — a direction potentially complementary to barrier-repair strategies.

🔒
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Anti-CD3 oral formulation Polymeric binder IP status miRNA biomarker panels + more
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Assignee Intelligence

Key Patent Holders by Therapeutic Cluster

Patent activity in this dataset substantially exceeds academic literature, reflecting a predominantly commercially driven innovation landscape in celiac disease.

Assignee Modality Key Jurisdictions Filing Period Stage Signal
Amgen Inc. Anti-IL-15 antibody (CeD, RCD, NCGS) US, CA, WO, AU, EP, IN, MX 2016–2024 Clinical signals
Precigen ActoBio Engineered L. lactis (IL-10 + gliadin antigen) WO, CA, IN, AU, US, JP, KR, CN 2021–2023 Clinical signals
Dr. Falk Pharma GmbH TG2 inhibitor — HLA-stratified dosing WO 2025 Early clinical
Immusant, Inc. Multi-epitope peptide vaccine (DQ2-α-I/II/III) EP, NZ, HU, IN, WO, US 2011–2016 Clinical investigation
Cephalon Inc. (Teva) Anti-IL-15 (DISC0280) — free IL-15 + IL-15/Rα complex WO, EP 2018–2019 Active IP
DBV Technologies Epicutaneous patch — gliadin epitope tolerization WO 2025 Late preclinical
Chugai Seiyaku Anti-HLA-DQ2.5 antibody (selective) IL 2023 Early stage
Univ. of California JAK inhibitors — CeD, RCD, lymphoma prevention WO, US 2022–2024 Active filings
🔒
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Nogra Pharma SMAD7 ASO Innate Pharma KIR3DL2 Oslo University Hospital + more
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Combination Approaches & Strategic Signals

Convergent Strategies and Emerging Directions in Celiac Disease R&D

TG2 inhibition + HLA-DQ haplotype stratification is the most recent personalized medicine signal in this dataset. The Dr. Falk Pharma 2025 filing explicitly ties TG2 inhibitor dosing to HLA-DQ2/DQ8 genotype — integrating pharmacogenomics into CeD therapy selection. IP strategists should monitor divisional filings and freedom-to-operate relative to the tTG2 substrate-binding active site.

IL-10 + gliadin antigen co-delivery (Precigen ActoBio) couples local immunosuppression (IL-10) with antigen-specific tolerance induction (deamidated HLA-DQ2/DQ8 epitopes) in a single oral microbial delivery system. This combination rationale — suppression plus tolerization simultaneously — is differentiated relative to single-agent approaches. The European Patent Office database confirms multiple active family members across 8 jurisdictions.

JAK inhibition for RCD and lymphoma prevention positions JAK inhibitors as lymphoma-preventive agents in RCD Type II — an unmet need not addressed by TG2 inhibitors or antigen-specific therapies. This signals an emerging role for JAK inhibitors in the highest-risk CeD patient subgroup.

Non-invasive biomarker platforms — miRNA panels (Ospedale Pediatrico Bambino Gesù), tTG-DGP arrays (Mayo Foundation), and CCL20 after gluten challenge (Immusant) — may serve as companion diagnostics for emerging drug programs, representing potential partnership opportunities between therapeutic and diagnostic IP holders. PatSnap's customer success stories include pharma teams using this approach for companion diagnostic co-development. Developers can also access patent data programmatically via PatSnap's open API.

Refractory CeD — Highest Unmet Need

Multiple modalities specifically target RCD Types I and II: KIR3DL2 agents (Innate Pharma), JAK inhibitors (UC), and anti-IL-15 antibodies (Amgen, Cephalon). Developers should note the small patient population and elevated regulatory-evidence thresholds for demonstrating mucosal healing.

  • Mucosal healing endpoints required
  • Villus-to-crypt ratio as key biomarker
  • IEL count reduction as endpoint
  • Lymphoma prevention — emerging endpoint
Antigen-Specific Tolerance — 5 Assignees

Differentiation will hinge on epitope breadth (DQ2 vs. DQ8 coverage), route of administration, and durability of tolerance induction. At least 5 distinct assignees pursue this approach: Immusant, BTG International, DBV Technologies, Cour Pharmaceuticals, and Precigen ActoBio.

Compare Tolerization Strategies
Clinical & Translational Signals

Development Stage Signals Across the Celiac Disease Pipeline

Inferred from patent filing breadth, dosing specificity, named strains, and trial-design methodologies in retrieved filings.

Pipeline Programs by Inferred Development Stage

Clinical-stage signals are strongest for Amgen anti-IL-15 and Precigen ActoBio L. lactis programs, based on dosing specificity and multi-jurisdictional filing breadth.

Celiac Disease Pipeline Programs by Development Stage: Clinical Signals 2 programs (Amgen anti-IL-15, Precigen ActoBio), Early Clinical 2 programs (Dr. Falk Pharma TG2, Immusant peptide), Late Preclinical 2 programs (DBV patch, Chugai anti-HLA), Early Stage 4 programs (UC JAK, Innate KIR3DL2, Cour nanoparticles, Tiziana anti-CD3) Horizontal bar chart showing the distribution of celiac disease drug pipeline programs across inferred development stages, based on patent filing breadth, dosing specificity, and trial-design methodology signals. Data derived from PatSnap Eureka patent analysis. 4 3 2 1 4 Early Stage 2 Late Preclinical 2 Early Clinical Programs per inferred stage · PatSnap Eureka dataset · 2025

CeD Pathogenesis Cascade & Intervention Points

The therapeutic pipeline maps to five sequential steps in CeD pathogenesis, from luminal gluten exposure through adaptive immune activation and mucosal damage.

Celiac Disease Pathogenesis Cascade and Drug Intervention Points: Step 1 Gluten Exposure (polymeric binders, enzymatic detox), Step 2 TG2 Deamidation (TG2 inhibitors — Dr. Falk Pharma 100mg/day), Step 3 HLA-DQ2/DQ8 Presentation (anti-HLA-DQ2.5 — Chugai; peptide vaccines — Immusant/DBV), Step 4 IL-15 Amplification (anti-IL-15 4-16mg/kg — Amgen/Cephalon), Step 5 Mucosal Damage and RCD (JAK inhibitors — UC; KIR3DL2 — Innate Pharma) Process diagram illustrating the five steps in celiac disease pathogenesis from gluten ingestion to mucosal damage, with corresponding drug intervention points and key assignees at each step. Derived from patent analysis via PatSnap Eureka. STEP 1 Gluten Exposure STEP 2 TG2 Deamidation STEP 3 HLA-DQ2/8 Presentation STEP 4 IL-15 Amplification STEP 5 Mucosal Damage Polymeric binders TG2 inhibitors 100mg/day Anti-HLA-DQ2.5 Peptide vaccines Anti-IL-15 4–16 mg/kg JAK inh. KIR3DL2 Dr. Falk Pharma Chugai · Immusant · DBV Amgen · Cephalon UC · Innate Source: PatSnap Eureka patent analysis · CeD pipeline dataset · 2025

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Frequently asked questions

Celiac Disease Drug Pipeline — key questions answered

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References

  1. Method for personalized therapy of celiac disease — Dr. Falk Pharma GmbH, 2025, WO
  2. Diagnosis and treatment of gluten-induced autoimmune diseases — University of Debrecen, 2018, EP
  3. Methods and compositions for the treatment of celiac disease, non-celiac gluten sensitivity, and refractory celiac disease — Amgen Inc., 2019, EP
  4. Anti-IL-15 antibody or antigen-binding fragment thereof, for use in the treatment of celiac disease, non-celiac gluten sensitivity and refractory celiac disease — Amgen Inc., 2024, MX
  5. Antibodies that specifically bind to human IL-15 and uses thereof — Cephalon Inc., 2018, WO
  6. Antibodies that specifically bind to human IL-15 and uses thereof — Cephalon Inc., 2019, EP
  7. Compositions comprising high molecular weight synthetic polymers or copolymers — Valorisation-Recherche, 2016, IL
  8. Pharmaceutical compositions comprising polymeric binders with non-hydrolysable covalent bonds — Valorisation-Recherche, 2007, CA
  9. Compositions and methods for treatment of celiac disease — Immusant Inc., 2011, EP
  10. Epitopes related to coeliac disease — BTG International Limited, 2010, NZ
  11. Immunotherapeutic methods, compounds, and compositions for treating or preventing celiac disease — DBV Technologies, 2025, WO
  12. Immune modified particles encapsulated gliadin antigenic epitopes for treating refractory celiac disease — Cour Pharmaceuticals, 2020, IL
  13. Treatment of celiac disease — Intrexon Actobiotics NV / Precigen ActoBio, 2021, WO
  14. Treatment of celiac disease — Intrexon Actobiotics NV / Precigen ActoBio, 2022, AU
  15. Composition and methods of treating inflammatory and autoimmune diseases — Tiziana Life Sciences PLC, 2022, US
  16. Compositions and methods for treating celiac disease — The Regents of the University of California, 2022, WO
  17. Compositions and methods for treating celiac disease — The Regents of the University of California, 2024, US
  18. Treatment of celiac disease — Innate Pharma, 2016, WO
  19. Methods of treating celiac disease using SMAD7 inhibition — Nogra Pharma Limited, 2017, WO
  20. Anti-HLA-DQ2.5 antibody and its use for the treatment of celiac disease — Chugai Seiyaku Kabushiki Kaisha, 2023, IL
  21. Use of activators of the aryl hydrocarbon receptor for treating gluten-induced gastrointestinal diseases — Institut National de Recherche pour l'Agriculture, l'Alimentation et l'Environnement, 2020, CA
  22. World Health Organization (WHO) — Autoimmune Disease and Gastrointestinal Disorders
  23. National Institutes of Health (NIH) — IL-15 in Autoimmune Enteropathy
  24. European Patent Office (EPO) — Patent Family Search

All data and statistics on this page are sourced from the references above and from PatSnap's proprietary innovation intelligence platform. This report is derived from a limited set of patent and literature records and represents a snapshot of innovation signals within this dataset only.

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