Published: Sep 23, 2026
Updated: Sep 23, 2026

Acute myeloid leukaemia (AML) is one of the fastest-moving, hardest-to-treat blood cancers - and one of the few major leukaemias where CAR-T cell therapy hasn't yet delivered the breakthrough seen elsewhere. Given how transformative CAR-T has been for certain lymphomas and B-cell leukaemias, it's a fair question patients and families keep asking: can the same approach be used against AML?
The honest, evidence-based answer in 2026 is: not yet, but not for lack of trying. Understanding exactly where the science stands - and what's already working in the meantime - makes it much easier to have an informed conversation with an oncologist, and to know what treatment path is realistically available.
Choosing where to pursue that treatment is its own challenge, especially for patients outside the countries where the newest therapies were first approved. This is a gap platforms like MediGence exist to close - by connecting patients with specialists who can translate the research below into an actual, personalised plan, rather than leaving them to interpret it alone.
CAR-T therapy works by re-engineering a patient's own T-cells to recognise and destroy cancer cells carrying a specific surface marker. It has succeeded in B-cell lymphomas and leukaemias largely because the target antigen - commonly CD19 - is expressed almost exclusively on cancerous cells, and patients can tolerate the loss of healthy B-cells as a side effect.
AML doesn't offer that same margin for error. The surface markers found on leukaemic myeloid cells are, almost without exception, also present on healthy blood-forming stem cells. Turning engineered T-cells loose on those markers risks wiping out the bone marrow's ability to make blood altogether - a toxicity that has capped how aggressively AML-directed CAR-T can be dosed in trials so far. The disease's immunosuppressive tumour microenvironment and its wide biological variability among patients compound the problem, often blunting the survival and function of infused CAR-T cells.
There is currently no CAR-T product approved by the FDA, EMA, or any major regulator specifically for AML. Every patient who receives CAR-T for AML today does so inside a clinical trial, at a specialised centre, and only after meeting criteria around antigen expression, prior treatment lines, and overall fitness.
That said, the pace of research has picked up meaningfully. A 2025 review of AML-directed CAR-T trials identified twenty-five separate studies, covering close to 300 patients treated between 2014 and early 2025 - most of them targeting three antigens: CD33, CD123, and CLL-1.
Target Antigen | Rationale | Typical Trial Phase | Key Challenge Observed |
CD33 | Widely expressed on AML blasts | Phase I/II | Overlaps with normal myeloid cells, causing marrow suppression |
CD123 | Highly expressed on leukaemic stem cells | Phase I/II | On-target, off-tumour toxicity to normal progenitors |
CLL-1 (CLEC12A) | More restricted to leukaemic cells than CD33/CD123 | Phase I/II | Early data promising, still limited patient numbers |
CD7 | Explored in mixed myeloid/lymphoid leukaemias | Early phase | Risk of T-cell fratricide requiring gene editing |
NKG2D-ligand based | Broader stress-antigen targeting approach | Early phase | Variable persistence of CAR-T cells |
CD38 | Also explored in multiple myeloma | Early phase | Antigen shared with other normal tissues |
Because these trials are scattered across a small number of specialised centres worldwide, and eligibility varies considerably from one protocol to the next, finding out whether a given patient's leukaemia even matches an open trial is often the hardest part of the process - this is exactly the kind of case-matching MediGence's medical teams help patients work through before any travel decision is made.
Response rates across these trials have been described as heterogeneous, and remissions achieved with CAR-T alone tend to be short-lived unless followed up with an allogeneic stem cell transplant. On safety, cytokine release syndrome and neurotoxicity - the two most talked-about CAR-T complications - have generally been low-grade and manageable in AML studies. The bigger limiting factor has been prolonged, severe myelosuppression, which sometimes requires a transplant just to restore normal blood cell production. Disease progression, rather than treatment toxicity, remains the leading reason patients don't see lasting benefit.
Several engineering strategies are now being tested specifically to work around these limitations:
While CAR-T remains experimental, AML care overall has moved forward substantially in the last two years - mostly on the back of oral, mutation-specific drugs that are already changing how the disease is managed day to day.
Currently approved AML therapies (2026)
Therapy Class | Example Drugs | Approved For | What It Targets |
Menin inhibitors | Revumenib, ziftomenib | Relapsed/refractory AML with KMT2A rearrangement or NPM1 mutation | Blocks the meninâKMT2A interaction driving leukaemic gene expression |
FLT3 inhibitors | Midostaurin, gilteritinib, quizartinib | Newly diagnosed or relapsed FLT3-mutated AML | FLT3 tyrosine kinase signalling |
IDH1/IDH2 inhibitors | Ivosidenib, enasidenib, olutasidenib | Relapsed/refractory AML with IDH1 or IDH2 mutation | Mutant IDH enzyme activity |
BCL-2 inhibitors | Venetoclax (plus azacitidine/HMA) | Newly diagnosed AML, especially in patients unfit for intensive chemotherapy | Apoptosis pathway in leukaemic cells |
Hedgehog pathway inhibitor | Glasdegib | Newly diagnosed AML with low-dose cytarabine | Smoothened (SMO) receptor signalling |
Antibody-drug conjugate | Gemtuzumab ozogamicin | CD33-positive AML | Delivers chemotherapy directly to CD33+ cells |
Allogeneic stem cell transplant | - | Eligible patients in remission, especially high-risk cytogenetics | Replaces marrow with a donor immune system |
Several of these, particularly the menin inhibitors, are recent enough - approved within the last one to two years - that access outside the country of first approval is still uneven. That gap in availability is precisely why so many patients start looking beyond their home healthcare system in the first place, and why comparing where a specific drug, transplant programme, or trial is actually accessible matters as much as comparing hospitals. MediGence's network of 500+ accredited hospitals across more than 24 countries, along with transparent, real-time cost comparisons, is designed to make that comparison possible before a patient commits to travelling anywhere.
For patients weighing treatment abroad - including many in Russia, where some of the newer targeted therapies and trial slots remain hard to access - three questions tend to matter more than any others:
Getting clear answers to these three questions early is usually what separates a well-informed treatment decision from a rushed one. It's also where a second opinion from a specialist haemato-oncologist - arranged through MediGence's teleconsultation platform before any travel is booked - tends to be most valuable, since it turns abstract trial and drug data into a plan specific to one patient's mutation profile and prior treatment history.
CAR-T cell therapy for AML is a genuinely active and promising area of research, but it's not yet something a patient can simply request. Access remains limited to clinical trials at a small number of centres, and results so far are encouraging without being definitive. The more immediate, accessible progress in AML care has come from oral, mutation-targeted drugs - menin, FLT3, and IDH inhibitors among them - several of which have only reached approval in the past one to two years.
For anyone navigating this landscape from outside the country where these therapies are approved, the practical path forward usually starts the same way: confirm the mutation profile, get an independent specialist opinion, and find out - concretely - which hospitals, drugs, and trials are actually within reach. MediGence exists to make that first step easier, connecting patients with the right specialists, comparing hospitals and costs across its global network, and coordinating everything from the first consultation through travel, treatment, and follow-up care.

Alvina Hasan is a dedicated medical researcher and scientific writer with a strong foundation in the pharmaceutical sciences. She holds a B.Pharm from Jamia Hamdard University and an M.Pharm in Quality Assurance from DIPSAR University. With deep medical expertise and a strong interest in healthcare communication, she focuses on transforming complex clinical and scientific information into clear, engaging, and easy-to-understand narratives. She develops insightful healthcare articles and research-driven pieces designed to support both medical professionals and patients, helping bridge the gap between advanced medical knowledge and practical understanding.

Dr. Prateek Varshney is a renowned Surgical Oncologist. He has experience of more than 15+ years in surgical Oncology. He is currently practising as a consultant at Metro Mass Hospital and Cancer Institute. He was also previously associated as a consultant with Sir Ganga Ram Hospital and as a professor at Gujarat Cancer Research Institute.





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