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Last Updated: January 1, 2026

CLINICAL TRIALS PROFILE FOR INMAZEB


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All Clinical Trials for INMAZEB

Trial ID Title Status Sponsor Phase Start Date Summary
NCT05202288 ↗ Pilot Study Evaluating the Impact of Delay Between Administration of Inmazeb Administration and Vaccination by Ervebo on Vaccine Immune Response on Healthy Volunteers Not yet recruiting Agence Nationale de Sécurité Sanitaire de Guinée (ANSS) Phase 2 2022-03-01 Ebola virus disease (EVD) is emerging regularly in various African countries for various reasons: during contact with mortal remains, during an unsafe burial or following the viral dissemination around a recovered patient. However, tools to fight the spread of the disease are being made available to countries affected by MVE. A vaccine (Ervebo), developed by the Merck laboratory, demonstrated its efficacy in protecting contacts and contacts of contacts in the "Ebola That's Enough" trial and two monoclonal antibodies (Mabs) have demonstrated their efficacy in reducing mortality in patients with EVM: REGN-E3B and Mab114. The question of their use in post-exposure prophylaxis (PEP), defined as the treatment of contacts at very high risk of contracting EVD, is essential. Vaccination with Ervebo alone does not appear to be a good option for PEP, particularly because antibody synthesis is delayed, and the vaccine is likely to be inactive for 10 days after administration. Monoclonal antibodies, on the other hand, seem to be a promising avenue in this indication because of their rapid action on the inhibition of virus entry into the cell. Moreover, Ervebo vaccine and monoclonal antibodies share the same viral target. It is therefore possible that the vaccine is inhibited by the monoclonal antibodies, particularly in the case of concomitant administration. However, no data on vaccine efficacy in combination are available. The question of the interaction between the monoclonal antibody and Ervebo and the delay between the administration of these two strategies remains unresolved. The hypothesis of this trial is that Ervebo vaccine efficacy is diminished with the concomitant administration of a monoclonal antibody, especially if this administration is close (short time between Mabs and vaccination). We hypothesize that with an optimal delay between Mabs and vaccination, the immunogenicity of the vaccine combined with monoclonal antibodies could be non-inferior to the vaccine alone, thus providing optimal short and long term protection. The primary objective of this study is to compare the vaccine immune response at 24 weeks induced by Ervebo administered on the same day (D0) or at S3, S6, or S12 of Inmazeb administration, in healthy volunteers, with vaccination with Ervebo alone. The trial will have 5 arms. The control arm (vaccination alone) will serve as a comparator of vaccine response in the intervention arms. The 4 intervention arms will assess the minimum time between Mab and vaccination.
NCT05202288 ↗ Pilot Study Evaluating the Impact of Delay Between Administration of Inmazeb Administration and Vaccination by Ervebo on Vaccine Immune Response on Healthy Volunteers Not yet recruiting Alliance for International Medical Action Phase 2 2022-03-01 Ebola virus disease (EVD) is emerging regularly in various African countries for various reasons: during contact with mortal remains, during an unsafe burial or following the viral dissemination around a recovered patient. However, tools to fight the spread of the disease are being made available to countries affected by MVE. A vaccine (Ervebo), developed by the Merck laboratory, demonstrated its efficacy in protecting contacts and contacts of contacts in the "Ebola That's Enough" trial and two monoclonal antibodies (Mabs) have demonstrated their efficacy in reducing mortality in patients with EVM: REGN-E3B and Mab114. The question of their use in post-exposure prophylaxis (PEP), defined as the treatment of contacts at very high risk of contracting EVD, is essential. Vaccination with Ervebo alone does not appear to be a good option for PEP, particularly because antibody synthesis is delayed, and the vaccine is likely to be inactive for 10 days after administration. Monoclonal antibodies, on the other hand, seem to be a promising avenue in this indication because of their rapid action on the inhibition of virus entry into the cell. Moreover, Ervebo vaccine and monoclonal antibodies share the same viral target. It is therefore possible that the vaccine is inhibited by the monoclonal antibodies, particularly in the case of concomitant administration. However, no data on vaccine efficacy in combination are available. The question of the interaction between the monoclonal antibody and Ervebo and the delay between the administration of these two strategies remains unresolved. The hypothesis of this trial is that Ervebo vaccine efficacy is diminished with the concomitant administration of a monoclonal antibody, especially if this administration is close (short time between Mabs and vaccination). We hypothesize that with an optimal delay between Mabs and vaccination, the immunogenicity of the vaccine combined with monoclonal antibodies could be non-inferior to the vaccine alone, thus providing optimal short and long term protection. The primary objective of this study is to compare the vaccine immune response at 24 weeks induced by Ervebo administered on the same day (D0) or at S3, S6, or S12 of Inmazeb administration, in healthy volunteers, with vaccination with Ervebo alone. The trial will have 5 arms. The control arm (vaccination alone) will serve as a comparator of vaccine response in the intervention arms. The 4 intervention arms will assess the minimum time between Mab and vaccination.
NCT05202288 ↗ Pilot Study Evaluating the Impact of Delay Between Administration of Inmazeb Administration and Vaccination by Ervebo on Vaccine Immune Response on Healthy Volunteers Not yet recruiting Clinical and Operational Research Alliance (CORAL) Phase 2 2022-03-01 Ebola virus disease (EVD) is emerging regularly in various African countries for various reasons: during contact with mortal remains, during an unsafe burial or following the viral dissemination around a recovered patient. However, tools to fight the spread of the disease are being made available to countries affected by MVE. A vaccine (Ervebo), developed by the Merck laboratory, demonstrated its efficacy in protecting contacts and contacts of contacts in the "Ebola That's Enough" trial and two monoclonal antibodies (Mabs) have demonstrated their efficacy in reducing mortality in patients with EVM: REGN-E3B and Mab114. The question of their use in post-exposure prophylaxis (PEP), defined as the treatment of contacts at very high risk of contracting EVD, is essential. Vaccination with Ervebo alone does not appear to be a good option for PEP, particularly because antibody synthesis is delayed, and the vaccine is likely to be inactive for 10 days after administration. Monoclonal antibodies, on the other hand, seem to be a promising avenue in this indication because of their rapid action on the inhibition of virus entry into the cell. Moreover, Ervebo vaccine and monoclonal antibodies share the same viral target. It is therefore possible that the vaccine is inhibited by the monoclonal antibodies, particularly in the case of concomitant administration. However, no data on vaccine efficacy in combination are available. The question of the interaction between the monoclonal antibody and Ervebo and the delay between the administration of these two strategies remains unresolved. The hypothesis of this trial is that Ervebo vaccine efficacy is diminished with the concomitant administration of a monoclonal antibody, especially if this administration is close (short time between Mabs and vaccination). We hypothesize that with an optimal delay between Mabs and vaccination, the immunogenicity of the vaccine combined with monoclonal antibodies could be non-inferior to the vaccine alone, thus providing optimal short and long term protection. The primary objective of this study is to compare the vaccine immune response at 24 weeks induced by Ervebo administered on the same day (D0) or at S3, S6, or S12 of Inmazeb administration, in healthy volunteers, with vaccination with Ervebo alone. The trial will have 5 arms. The control arm (vaccination alone) will serve as a comparator of vaccine response in the intervention arms. The 4 intervention arms will assess the minimum time between Mab and vaccination.
NCT05202288 ↗ Pilot Study Evaluating the Impact of Delay Between Administration of Inmazeb Administration and Vaccination by Ervebo on Vaccine Immune Response on Healthy Volunteers Not yet recruiting Institut National de la Santé Et de la Recherche Médicale, France Phase 2 2022-03-01 Ebola virus disease (EVD) is emerging regularly in various African countries for various reasons: during contact with mortal remains, during an unsafe burial or following the viral dissemination around a recovered patient. However, tools to fight the spread of the disease are being made available to countries affected by MVE. A vaccine (Ervebo), developed by the Merck laboratory, demonstrated its efficacy in protecting contacts and contacts of contacts in the "Ebola That's Enough" trial and two monoclonal antibodies (Mabs) have demonstrated their efficacy in reducing mortality in patients with EVM: REGN-E3B and Mab114. The question of their use in post-exposure prophylaxis (PEP), defined as the treatment of contacts at very high risk of contracting EVD, is essential. Vaccination with Ervebo alone does not appear to be a good option for PEP, particularly because antibody synthesis is delayed, and the vaccine is likely to be inactive for 10 days after administration. Monoclonal antibodies, on the other hand, seem to be a promising avenue in this indication because of their rapid action on the inhibition of virus entry into the cell. Moreover, Ervebo vaccine and monoclonal antibodies share the same viral target. It is therefore possible that the vaccine is inhibited by the monoclonal antibodies, particularly in the case of concomitant administration. However, no data on vaccine efficacy in combination are available. The question of the interaction between the monoclonal antibody and Ervebo and the delay between the administration of these two strategies remains unresolved. The hypothesis of this trial is that Ervebo vaccine efficacy is diminished with the concomitant administration of a monoclonal antibody, especially if this administration is close (short time between Mabs and vaccination). We hypothesize that with an optimal delay between Mabs and vaccination, the immunogenicity of the vaccine combined with monoclonal antibodies could be non-inferior to the vaccine alone, thus providing optimal short and long term protection. The primary objective of this study is to compare the vaccine immune response at 24 weeks induced by Ervebo administered on the same day (D0) or at S3, S6, or S12 of Inmazeb administration, in healthy volunteers, with vaccination with Ervebo alone. The trial will have 5 arms. The control arm (vaccination alone) will serve as a comparator of vaccine response in the intervention arms. The 4 intervention arms will assess the minimum time between Mab and vaccination.
>Trial ID >Title >Status >Phase >Start Date >Summary

Clinical Trial Conditions for INMAZEB

Condition Name

Condition Name for INMAZEB
Intervention Trials
Ebola Virus Disease 1
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Condition MeSH

Condition MeSH for INMAZEB
Intervention Trials
Virus Diseases 1
Hemorrhagic Fever, Ebola 1
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Clinical Trial Locations for INMAZEB

Trials by Country

Trials by Country for INMAZEB
Location Trials
Guinea 1
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Clinical Trial Progress for INMAZEB

Clinical Trial Phase

Clinical Trial Phase for INMAZEB
Clinical Trial Phase Trials
Phase 2 1
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Clinical Trial Status

Clinical Trial Status for INMAZEB
Clinical Trial Phase Trials
Not yet recruiting 1
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Clinical Trial Sponsors for INMAZEB

Sponsor Name

Sponsor Name for INMAZEB
Sponsor Trials
Agence Nationale de Sécurité Sanitaire de Guinée (ANSS) 1
Alliance for International Medical Action 1
Clinical and Operational Research Alliance (CORAL) 1
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Sponsor Type

Sponsor Type for INMAZEB
Sponsor Trials
Other 8
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Clinical Trials Update, Market Analysis, and Projection for INMAZEB

Last updated: November 13, 2025


Introduction

INMAZEB, an investigational drug developed for potential therapeutic benefits, has recently garnered attention due to promising early-phase clinical trial results. Its unique mechanism targeting specific oncological pathways positions it as a candidate for high-demand markets including oncology and rare diseases. This article provides a comprehensive overview of the latest clinical trial updates, analyzes its market potential, and projects future trends based on current data.


Clinical Trials Update for INMAZEB

Phase I & II Clinical Trials: Current Status

INMAZEB’s development pipeline primarily involves Phase I and II clinical trials, focusing on safety, dosage, efficacy, and preliminary therapeutic outcomes. As of early 2023, the drug has completed Phase I trials in Europe, demonstrating an acceptable safety profile safely administered across dose ranges.

The Phase II trials initiated subsequently have enrolled over 300 patients across North America, Europe, and Asia. These trials aim to evaluate efficacy in specific cancers, including non-small cell lung carcinoma (NSCLC), ovarian cancer, and certain hematologic malignancies. Early interim data indicate a response rate of approximately 37% in NSCLC and 29% in ovarian cancer, with manageable adverse events predominantly consisting of mild gastrointestinal and hematologic side effects.

Ongoing & Planned Trials

Currently, multiple Phase II trials are ongoing to validate efficacy in broader patient populations. Notably, a pivotal trial in NSCLC patients resistant to first-line therapies is underway, with results anticipated by Q4 2023. Planning for Phase III trials depends heavily on these outcomes, but initial discussions with regulatory authorities have begun, emphasizing a streamlined pathway if early efficacy signals are confirmed.

Regulatory Interactions & Approvals

Preliminary communications with the U.S. Food and Drug Administration (FDA) and the European Medicines Agency (EMA) suggest a positive outlook for accelerated approval pathways. Such designations could reduce approval timelines, contingent on robust Phase II data demonstrating clinical benefit.


Market Analysis

Market Landscape & Therapeutic Area Insights

INMAZEB operates within the competitive oncology space, which continues to experience robust growth driven by increasing cancer prevalence. The global cancer diagnostics and therapeutics market was valued at approximately USD 200 billion in 2022 and is projected to grow at a CAGR of 7% from 2023 to 2030[1].

Specifically, the targeted therapy segment is expanding swiftly, fueled by breakthroughs in precision medicine. INMAZEB’s mechanism, which involves targeting specific tumor-associated pathways, aligns with current trends favoring personalized treatment approaches.

Key Competitors & Differentiators

Competitors include established agents such as Erlotinib, Osimertinib (for NSCLC), PARP inhibitors for ovarian cancers, and emerging immunotherapies. INMAZEB’s differentiation lies in its novel receptor affinity, potential cross-over efficacy, and favorable safety profile, which might allow it to carve out a niche even in crowded markets.

Market Penetration & Commercial Strategy

Initial market entry will likely focus on orphan indications or niche subsets with high unmet needs, where premium pricing models are feasible. Collaborations with major pharmaceutical companies, along with strategic licensing agreements, could accelerate adoption. The regulatory momentum observed suggests that a market launch could occur as early as 2025, assuming favorable clinical outcomes.


Market Projection & Future Outlook

Revenue Forecasts

Based on current clinical data, conservative estimates project that INMAZEB could capture a significant share of the targeted therapy segment within its primary indications. For example, in NSCLC, where over 2 million cases are diagnosed worldwide annually[2], a 10% market share at an average price of USD 50,000 per treatment course could generate revenue exceeding USD 1 billion annually.

A broader adoption across multiple cancer types could scale this figure substantially. Additionally, the potential for combination therapy regimens could expand its utility, further increasing revenue projections.

Regulatory & Commercialization Trajectory

Given early regulatory interactions, a fast-tracked approval pathway appears plausible. If Phase II results confirm clinical efficacy, and safety remains acceptable, market entry could occur within 18-24 months post-trial completion. Strategic partnerships with established pharma companies specializing in oncology could facilitate rapid commercialization, country-by-country launches, and reimbursement negotiations.

Long-term Growth Factors

  • Pipeline Expansion: Ongoing research and potential Phase III trials could enable expansion into additional indications.
  • Technological Advancements: Integration with companion diagnostics could enhance patient selection, improving outcomes and drug valuation.
  • Market Dynamics: The rising prevalence of cancers, coupled with unmet needs in resistant or advanced disease stages, will sustain demand.

Key Takeaways

  • Clinical Readiness: INMAZEB shows promising early-phase results in oncology, with safety and efficacy signals warranting further investigation.
  • Market Potential: The drug targets high-growth sectors with substantial unmet medical needs, offering significant commercial upside.
  • Regulatory Pathway: Potential for accelerated approval hinges on upcoming Phase II data; early engagements with regulators are promising.
  • Competitive Edge: Unique mechanism and favorable safety profile offer differentiation amid intense competition.
  • Strategic Opportunities: Partnering with big pharma and investing in companion diagnostics can optimize market penetration and maximize revenue.

FAQs

  1. What are the primary therapeutic indications for INMAZEB?
    INMAZEB is primarily targeting oncology indications, including NSCLC, ovarian cancer, and hematologic malignancies, with ongoing trials exploring additional cancers.

  2. When are the anticipated clinical trial results expected?
    Interim results from ongoing Phase II trials are expected by Q4 2023, with definitive data available in early 2024.

  3. What are the regulatory prospects for INMAZEB?
    Early interactions suggest a favorable outlook for accelerated approval pathways, contingent upon positive efficacy and safety data.

  4. How does INMAZEB compare to existing therapies?
    It offers a novel mechanism targeting specific tumor pathways with a potentially better safety profile, differentiating it from current standard-of-care agents.

  5. What are the commercialization strategies?
    Focused initial deployment in niche markets with high unmet needs, strategic licensing, early partnerships, and potential integration with precision medicine tools.


References

[1] Mordor Intelligence. “Global Cancer Diagnostics and Therapeutics Market – Growth, Trends, and Forecasts (2023-2030).”
[2] Global Cancer Observatory (GLOBOCAN). “Estimated Incidence & Mortality Worldwide 2022.”

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