CAR‑T Cell Therapy in Lymphomas, Acute Lymphoblastic Leukemia, and Multiple Myeloma
CAR‑T cell therapy represents one of the most important examples of adoptive immunotherapy successfully translated into modern oncology practice. The treatment is based on the collection of a patient’s own T lymphocytes, their genetic modification to express a chimeric antigen receptor, and subsequent reinfusion after lymphodepleting chemotherapy. This approach enables T cells to recognize selected tumor-associated antigens and initiate a cytotoxic immune response independently of conventional HLA-mediated antigen presentation.
To date, the most established clinical role of CAR‑T therapy has been in B‑cell malignancies and multiple myeloma. In diffuse large B‑cell lymphoma, CAR‑T cells have become a standard therapeutic option for selected patients with relapsed or refractory disease, including those treated in the second-line setting after early relapse or primary refractoriness to immunochemotherapy. In mantle cell lymphoma, CAR‑T therapy is used in heavily pretreated patients, particularly after failure of Bruton tyrosine kinase inhibitors. In B‑cell acute lymphoblastic leukemia, CAR‑T cells have enabled deep and durable remissions in patients with relapsed or refractory disease, including pediatric and young adult populations. In multiple myeloma, BCMA-directed CAR‑T constructs have shown high response rates in patients previously exposed to multiple lines of therapy.
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Despite its transformative efficacy, CAR‑T cell therapy is associated with a distinct toxicity profile, including cytokine release syndrome, immune effector cell-associated neurotoxicity syndrome, prolonged cytopenias, infections, and hypogammaglobulinemia. Therefore, careful patient selection, timely referral, specialized center experience, and multidisciplinary collaboration are essential for safe and effective treatment delivery.
The development of CAR‑T therapy illustrates how rapidly the boundaries between basic science, cellular engineering, translational research, and clinical oncology are evolving. It also highlights the need for integrated coöperation between clinicians, molecular diagnostics experts, immunologists, cell therapy laboratories, and healthcare systems to make advanced cellular therapies broadly accessible to patients.
CAR‑T cell therapy represents one of the most important examples of adoptive immunotherapy successfully translated into modern oncology practice. The treatment is based on the collection of a patient’s own T lymphocytes, their genetic modification to express a chimeric antigen receptor, and subsequent reinfusion after lymphodepleting chemotherapy. This approach enables T cells to recognize selected tumor-associated antigens and initiate a cytotoxic immune response independently of conventional HLA-mediated antigen presentation.
Show more
To date, the most established clinical role of CAR‑T therapy has been in B‑cell malignancies and multiple myeloma. In diffuse large B‑cell lymphoma, CAR‑T cells have become a standard therapeutic option for selected patients with relapsed or refractory disease, including those treated in the second-line setting after early relapse or primary refractoriness to immunochemotherapy. In mantle cell lymphoma, CAR‑T therapy is used in heavily pretreated patients, particularly after failure of Bruton tyrosine kinase inhibitors. In B‑cell acute lymphoblastic leukemia, CAR‑T cells have enabled deep and durable remissions in patients with relapsed or refractory disease, including pediatric and young adult populations. In multiple myeloma, BCMA-directed CAR‑T constructs have shown high response rates in patients previously exposed to multiple lines of therapy.
Despite its transformative efficacy, CAR‑T cell therapy is associated with a distinct toxicity profile, including cytokine release syndrome, immune effector cell-associated neurotoxicity syndrome, prolonged cytopenias, infections, and hypogammaglobulinemia. Therefore, careful patient selection, timely referral, specialized center experience, and multidisciplinary collaboration are essential for safe and effective treatment delivery.
The development of CAR‑T therapy illustrates how rapidly the boundaries between basic science, cellular engineering, translational research, and clinical oncology are evolving. It also highlights the need for integrated coöperation between clinicians, molecular diagnostics experts, immunologists, cell therapy laboratories, and healthcare systems to make advanced cellular therapies broadly accessible to patients.
Wojciech Szlasa
Lekarz na Oddziale Hematologicznym DCOPIH, asystent w Katedrze Biologii Molekularnej i Komórkowej UMW we Wrocławiu, prowadzi badania nad terapią CAR‑T, przeciwciałami bispecyficznymi i skojarzeniem radioterapii z immunoterapią w nowotworach hematologicznych. Doświadczenie w terapii komórkowej zdobywał podczas stażu w Würzburgu — jednym z czołowych europejskich ośrodków CAR‑T — oraz we współpracy z Université de Lorraine (Nancy), zajmującą się modelowaniem molekularnym i elektrotransferem genów przez błony komórek nowotworowych. Łączy pracę eksperymentalną z modelowaniem obliczeniowym i translacją wyników do hematoonkologii klinicznej.
Read the Abstracts from Our Invited Speakers
Cancer Biology
- AllergoOncology: Lessons Learned from the Allergy-Glioblastoma Connection
Aurélie Poli, Luxembourg Institute of Health, LUXEMBOURG
- Cytotoxic NK Cells Impede Response to Checkpoint Immunotherapy in Melanoma with an Immune-Excluded Phenotype
Joanna Poźniak, KU Leuven, BELGIUM
- Inducing Immunogenic Tertiary Lymphoid Structures Across Cancer Types With Dendritic Cell Reprogramming
Camille Chatelain, Lund University, SWEDEN
- The Role of ILC2 in Tissue Homeostasis and Neoplasia
Tim Halim, Cancer Research UK Cambridge Institute, UNITED KINGDOM
Cancer Neuroscience
- Latent Neuropathy in Colorectal Cancer: Implications for Cancer Survivorship
Andrew Shepherd, University of Texas MD Anderson Cancer Center, USA
- Remodelling of the Bone Microenvironment During Cancer Infiltration: Insights from Multiplex Imaging and Spatial Transcriptomics
Christina Møller Andreasen, University of Southern Denmark, DENMARK
- Enteric Nervous System-Derived VIP Restrains Differentiation of LGR5+ Stem Cells Towards the Secretory Lineage Impeding Type 2 Immune Programs
Christoph Klose, Charité – Berlin University Medicine, GERMANY
Cancer Therapy
- Targeting the Dark Matter of Cancer with AI-Designed Mini Binder
Tobias Bald, University of Bonn, GERMANY
- Engineering Nanomedicines for Targeted Neuroimmune Modulation
Helena Florindo, University of Lisbon, PORTUGAL
- Potentiating Immunotherapy of Urological Cancers with Oncolytic Viruses
Gabri van der Pluijm, Leiden University Medical Center, THE NETHERLANDS
- Strategic Priorities in Cancer Therapy: Navigating the 2026 Cancer Mission Calls
Industry Contact Point, Łukasiewicz – PORT, POLAND
- Cancer Neuroscience of Brain TumorsKEYNOTE SPEAKER
Frank Winkler, Universitätsklinik Heidelberg, GERMANY
- Spatial Reprogramming of Immune Surveillance in Breast Cancer: From Immune Control to Immune Failure
Sheeba Irshad, King’s College London, UNITED KINGDOM
- The War Against Glioblastoma Needs More Than Standard of Care
Stefaan Van Gool, IOZK Immun-Onkologisches Zentrum Köln, GERMANY
- Uncovering the Spatial Regulation of γδ T Cells: Toward Receptor-Guided Immunotherapy
Jürgen Kuball, University Medical Center Utrecht, THE NETHERLANDS
- CAR‑T Cell Therapy in Lymphomas, Acute Lymphoblastic Leukemia, and Multiple Myeloma
Wojciech Szlasa, DCOPIH, POLAND
- Expanding CAR Targets to Non Protein Antigens
Sébastien Wälchli, Oslo University Hospital, NORWAY
- Advancing BIA-ALCL Research Through a UK – PORT Alliance — From Biobanking to Immune Discovery
Helen Kakkassery, King’s College London, UNITED KINGDOM
PORT for Business — Company Session
- From Sample to Insight: Advanced Analytics for Oncology Research
Malwina Woźniak, Łukasiewicz – PORT, POLAND
- Beyond glioblastoma — WPD Pharmaceuticals
Marek Sipowicz, WPD Pharmaceuticals, POLAND
- The Development of USP7 Inhibitor for Cancer Immunotherapy
Zbigniew Zasłona, Molecule, POLAND
- Leveraging Cancer Biology for Therapeutic Innovation: Clinical and Discovery Advances at Ryvu
Milena Mazan, Ryvu Therapeutics, POLAND
- Transforming Multimodal Complexity into Precision Oncology Insights
Marek Kudła, Ardigen, POLAND
- JJP-1008 as a Novel Checkpoint Inhibitor
Agata Drewniak-Maksymów, JPP Biologics, POLAND
- Synergistic Nanotechnology for Targeted Therapeutics in Oncology
Artur Wnorowski, Biotechna, POLAND
- Development of Biological Drugs for Oncological Indications at Mabion
Jakub Knurek, Mabion, POLAND
- Enabling Early Drug Discovery: Integrated Screening Capabilities and a BRD4/CRBN PROTAC Case Study
Justyna Adamczyk, Enamine, POLAND