Oncology Drug– category –
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Oncology Drug
Where Will Nuclear Medicine Be in the Next Decade? Ac-225, Pb-212, and the Next-Generation RI Pipeline Map | Vol.3 (Final)
Nuclear medicine next decade: shift from β (177Lu) to α (225Ac, 212Pb). α has 100× cytotoxicity, short range protects normal tissue. Pipelines: 225Ac-PSMA, 225Ac-FAP, 225Ac-DOTATATE (RYZ101), 212Pb-DOTAMTATE. New targets (FAP, GD2, HER2, αvβ6). Manufacturing wall (Oak Ridge, Karlsruhe, PSI, JAEA). Final volume. -
Oncology Drug
Mapping Nuclear Medicine Competitors: Lantheus, Bayer, Telix and the 3 Turning Points Ahead | Vol.2
Comparison of nuclear medicine competitors (Lantheus, Bayer, Telix, Lilly × Mariana, BMS × RayzeBio, AZ × Fusion) across 5 axes: diagnostic vs treatment, target molecules, isotopes, manufacturing infrastructure, partnerships. Emerging specialists (Aktis, Convergent, Perspective, Curasight, Clarity) and industry reshuffling scenarios. Vol. 2. -
Oncology Drug
Where Is Nuclear Medicine Heading? Pluvicto’s Success and the Vertical Integration Imperative | Nuclear Medicine Vol.1
Novartis Pluvicto (mCRPC, $1B+ annual revenue) and Lutathera (NET) clinical and commercial success moved nuclear medicine from niche to mainstream. Short isotope half-life and specialized facility requirements make Vertical Integration (production-synthesis-distribution-delivery chain) decisive competitive advantage. Endocyte acquisition $2.1B, Point Biopharma $1.4B, 14-site global manufacturing network. Vol. 1. -
Oncology Drug
Where Is CAR-T Heading? 3 Commercialization Paths (Autologous/Allogeneic/In Vivo) and the Next-Decade Optimal Mix | Vol.3 (Final)
Structural comparison of CAR-T's three commercialization paths (autologous, allogeneic, in vivo) across 7 axes. Market projection: $16.5B in 2030, $35B in 2035, with in vivo's late-decade growth. Final volume. -
Oncology Drug
How Is In Vivo CAR-T’s Competitive Structure Shifting? AbbVie-Capstan, Lilly-(Orna+Kelonia), and the 3 Independents Mapping the Two-Camp Era | Vol.2
Comparing 5 in vivo CAR-T companies (Capstan, Umoja, Orna, Renagade, Sana) on technology platform (LNP-mRNA, LV, circular RNA, multi-organ LNP), indication focus (autoimmune vs cancer), strategic partners (Pfizer, Lilly, Merck). Vol. 2. -
Oncology Drug
Where Is In Vivo CAR-T Heading? How Lilly’s Two-Step (Orna + Kelonia) Redefines Gene Therapy’s Core | In Vivo CAR-T Revolution Vol.1
April 21, 2026 Eli Lilly to acquire Kelonia Therapeutics for up to $7B—the largest in vivo CAR-T M&A signaling pharma majors' serious entry. Kelonia's PreciseTarget LNP delivers CAR mRNA to T cells in vivo, softening ex vivo CAR-T's three walls (manufacturing time, cost, toxicity) simultaneously. Vol. 1. -
Oncology Drug
What the Epigenetic Memory of Colitis Reveals: AP-1 Imprints Persisting 100+ Days That Drive Cancer | Cancer Origin Vol.3 (Final)
Nagaraja et al. Nature 2026/4/16: chronic colitis leaves AP-1-dependent epigenetic memory in colonic stem cell chromatin that persists for 100+ days. SHARE-TRACE proves clonal inheritance through stem cell divisions. Memory + APC mutation cooperatively accelerates tumor formation; AP-1 inhibition eliminates acceleration. New IBD-cancer prevention paradigm. Final volume. -
Oncology Drug
What Cerebellar Organoids Reveal About Medulloblastoma’s Origin: 3 Axes Toward Precision Medicine | Cancer Origin Vol.2
Cell April 2026 paper used human iPSC-derived cerebellar organoids + CRISPR to reproduce all four medulloblastoma subtypes (WNT, SHH, Group 3, Group 4) in real time. Cell of origin for each subtype directly confirmed. Vismodegib and BET inhibitor responses validated in subtype-specific manner. Personalized-therapy organoid proof of concept. Vol. 2. -
Oncology Drug
The Window Where Cancer Is Born — Progenitor Niche and the Benign-to-Malignant Transition | Frontiers of Cancer Origin Research, Vol. 1
Reyes et al. Cell May 2026: PDAC's benign-to-malignant transition happens in a rare progenitor-like cell population that assembles a self-reinforcing niche. Tumor-driving and tumor-suppressing programs (p53, CDKN2A, SMAD4) co-activate in these cells. KRAS inhibition or p53 activation collapses the niche and delays malignancy. Vol. 1. -
Oncology Drug
Why Does the Heart Rarely Get Cancer? — Mechanical Load Suppresses Tumour Growth via Nesprin-2 | Science April 2026
Science April 23, 2026 (Ciucci et al.) finally answered why the heart almost never develops cancer. Three experimental systems — genetic mouse model + heterotopic heart transplantation unloading + engineered heart tissues — established that mechanical load directly suppresses cancer cell proliferation. Mechanism: Nesprin-2 → histone methylation (H3K9me3) → chromatin compaction → reduced proliferation. Opens a new therapeutic axis: mechanical-stimulation therapy. -
Oncology Drug
PERFORM vs TACITO, the Segatella copri Problem, and the Commercial Frontier — Three Crossroads Facing FMT’s Clinical Translation | Making Cancer Immunotherapy Work with FMT, Vol. 3 (Final)
Series finale. Same metastatic RCC, contrasting designs: PERFORM (healthy donor, ipi/nivo) vs TACITO (ICI complete-responder donor, pembro+axitinib). The cross-trial Segatella copri context-dependent toxicity discovery (drives toxicity ONLY under dual ICI), the three-layer commercial map (Seres/Vedanta/Exeliom; Locus/Eligo; rational consortia), and structural implications for the global ecosystem. The clinical-translation year of FMT/LBP, synthesized. -
Oncology Drug
FMT Is Subtraction, Not Addition — How FMT-LUMINate Dissected the Real Mechanism Behind Microbiome-Empowered Cancer Immunotherapy | Making Cancer Immunotherapy Work with FMT, Vol. 2
Building on Volume 1, we dissect the convergent finding across the three April 2026 Nature Medicine trials: FMT works because patients lose their own deleterious bacteria, not because they acquire donor bacteria. FMT-LUMINate's mouse reverse-experiment proved causality. Mechanism: tryptophan/kynurenine pathway disturbance, IDO/AhR axis, regulatory T-cell expansion. Vol. 2 of the series. -
Oncology Drug
The Day Three Major FMT × Immunotherapy Trials Landed Together in Nature Medicine — Reshaping Cancer Immunotherapy with the Gut Microbiome | Making Cancer Immunotherapy Work with FMT, Vol. 1
In April 2026, Nature Medicine Vol. 32 No. 4 published three FMT-plus-immunotherapy trials in a single issue: 80% ORR in NSCLC, and a doubling of progression-free survival in metastatic RCC (24.0 vs 9.0 months, HR 0.50). But the deeper significance lies not in the numbers — it is the shared mechanistic finding that responders selectively lost their own deleterious bacteria, rather than acquiring beneficial bacteria from the donor. Volume 1 of our series surveys all three trials and what their simultaneous publication means. -
Oncology Drug
New Series|Latest Therapeutic Trends — The Transcription Machinery as a Cancer Drug Target (Part 6 Final: BRD4 and CDK Crosstalk — The Future of Super-Enhancer Targeting)
From Part 1 through Part 5, we explored CDK7/8/9/12/13/11 and their roles in transcriptional regulation. From Part 1 through Part 5, we explored CDK7/8/9/12/13/11 and their roles in transcriptional regulation. In this final installment, ... -
Oncology Drug
New Series|Latest Therapeutic Trends — The Transcription Machinery as a Cancer Drug Target (Part 5: CDK11 — Pause-Checkpoint and Emerging Therapeutic Potential)
In Part 4, we examined CDK12/13 and their role in DNA repair and synthetic lethality. In Part 4, we examined CDK12/13 and their role in DNA repair and synthetic lethality. Here in Part 5, we focus on CDK11, a kinase that has recently gai... -
Oncology Drug
New Series|Latest Therapeutic Trends — The Transcription Machinery as a Cancer Drug Target (Part 4: CDK12 & CDK13 — DNA Repair and Synthetic Lethality Strategies)
In Parts 1–3, we reviewed CDK7/8 and CDK9. In Parts 1–3, we reviewed CDK7/8 and CDK9. Here in Part 4, we turn to CDK12 and CDK13, transcriptional kinases that stabilize elongation of long DNA repair genes. They serve as “guardians” of ge... -
Oncology Drug
New Series|Latest Therapeutic Trends — The Transcription Machinery as a Cancer Drug Target (Part 3: CDK9 — The Bottleneck of Transcription Elongation and Clinical Development)
In Parts 1 and 2, we introduced CDK7 and CDK8 in transcription initiation. In Parts 1 and 2, we introduced CDK7 and CDK8 in transcription initiation. Here in Part 3, we focus on CDK9, the central kinase controlling the transition from pa... -
Oncology Drug
New Series|Latest Therapeutic Trends — The Transcription Machinery as a Cancer Drug Target (Part 2: CDK7 & CDK8 — Gatekeepers of Transcription Initiation and Emerging Therapeutics)
In Part 1, we reviewed the fundamentals of transcription and the CDK family. In Part 1, we reviewed the fundamentals of transcription and the CDK family. In this article, we focus on CDK7 and CDK8, two kinases that act at the transcripti... -
Oncology Drug
New Series|Latest Therapeutic Trends — The Transcription Machinery as a Cancer Drug Target (Part 0: Introduction and Overview)
This series focuses on the transcriptional machinery as an emerging target for cancer therapy, highlighting CDK (Cyclin-Dependent Kinases) families involved in transcription and BRD4. This series focuses on the transcriptional machinery ... -
Oncology Drug
New Series|Latest Therapeutic Trends — The Transcription Machinery as a Cancer Drug Target (Part 1: Introduction — Overview of Transcription and CDK Families)
This series will explore the latest drug discovery trends targeting the transcriptional machinery. This series will explore the latest drug discovery trends targeting the transcriptional machinery. In Part 1, we provide an introduction: ...