TheraRadar
Page updated Jul 4, 2026 · using data updated on Jun 28, 2026

CD19-targeted therapies — Platform Heatmap

CD19-directed therapies across modalities (CAR-T, T-cell-engaging bispecifics, mAb/ADC) AND across domains — the heme-oncology workhorse (lymphoma/leukemia) now crossing into autoimmune disease (lupus, myasthenia, scleroderma, myositis), where CD19 CAR-T "resets" the B-cell compartment.

70 drugs
30 indications
188 trials
14 in Phase 3
56 sponsors
Targets: CD19 · CD19 CAR-T (autoimmune) · CD19 × CD3 T-cell engager · CD19 CAR-T · Anti-CD19 (mAb) · CD19 CAR-NK (autoimmune)
Beta 40 drugs of 70 20 indications of 30 161 programs mapped curated roster · no per-cell AI classification ⏰ 15 due ≤6 mo click any cell → asset tearsheet
At a glance

40 drugs target this family across 20 indications (161 drug–indication programs mapped). The most contested indication is Lupus (39 programs).

Key findings
  • Class maturity: 8 of 70 drugs map to an approved compound (11%); 62 are NME candidates — mix of label-extension and first-mover bets.
  • Antigen concentration: CD19 (29 drugs, 41%) — dominant target.
  • Indication concentration: Lupus (39 drugs, 56%) — primary deployment target.
  • 37 platform drugs deployed in ≥3 indications (top: rapcabtagene autoleucel (YTB323) in 9 indications) — broad-applicability bets.
  • Sponsor concentration: AstraZeneca runs 3 drugs (4%) — leading among 56 sponsors.
  • 17 drugs have hot readouts in next 6 months — class-defining data imminent.
  • 27 drugs have stale trials (overdue without status change) — possible operational issues or class deprioritization.
  • 14 of 70 drugs have reached Ph3 (20%) — class maturity by progression.

Forward catalysts next 18 months⏰ 15 due ≤6 mo

Nearest first. ⚖ Confirmed FDA PDUFA dates (curated calendar, primary sources) and 📅 estimated readouts (ClinicalTrials.gov primaryCompletionDate — a timing proxy, not a confirmed action date). Red = due within 6 months.

Drug × Indication

Each cell = this drug’s most-advanced program in that indication (“all assets against target X”). Click for details. · showing top 40 of 70 drugs × top 20 of 30 indications by program count — long tail omitted for width, not a data cap.
Ph1 Ph2 Ph3 Ph4 +combo
Select & Focus Pro 🔒 Transpose, filtering, selection & export are Pro (search & sort are free) — start a free trial, or try them free on our showcase →
Lupus
Hodgkin
ALL
DLBCL
Systemic Sclerosis
RA
NHL
Vasculitis
FL
CLL/SLL
Autoimmune Cytopenias
MS
Sjogren's
MG
Myositis
Membranous Nephropathy
MCL
Multi-tumor basket
MM
Amyloidosis
YTS109 cellChina Immunotech (Beijing)CD19 CAR-T (autoimmune)
SurovatamigAstraZenecaCD19 × CD3 T-cell engager
rapcabtagene autoleucel (YTB3…NovartisCD19 CAR-T
GNC-038Sichuan BailiCD19 × CD3 T-cell engager
BMS-986353 (CC-97540)Bristol-Myers SquibbCD19 CAR-T (autoimmune)
FT819FateCD19 CAR-T (autoimmune)
tafasitamab (Monjuvi)Incyte CorporationCD19 mAb
AZD0120AstraZenecaBCMA/CD19
blinatumomab (Blincyto)AmgenCD19 × CD3 bispecific
MK-1045Merck & Co.CD19 × CD3 T-cell engager
NKX019NkartaCD19 CAR-NK (autoimmune)
obecabtagene autoleucel (Auca…Autolus LimitedCD19 CAR-T
KYV-101KyvernaCD19 CAR-T (autoimmune)
AZD0486AstraZenecaCD19 × CD3 T-cell engager
CABA-201Cabaletta BioCD19 CAR-T (autoimmune)
YK012Excyte BiopharmaCD19 × CD3 T-cell engager
CTX112CRISPRCD19 CAR-T (autoimmune)
tisagenlecleucel (Kymriah)NovartisCD19 CAR-T
loncastuximab tesirine (Zynlo…ADC TherapeuticsCD19 ADC
InebilizumabAmgenCD19
ObexelimabZenas BioPharma (USA)CD19
zamtocabtagene autoleucelMiltenyi BiomedicineCD19
EB103Estrella BiopharmaCD19
BudoprutugClimb BioAnti-CD19 (mAb)
MB-CART19.1Miltenyi BiomedicineCD19
PIT565NovartisCD19 × CD3 T-cell engager
CLN-978CullinanCD19 × CD3 T-cell engager
ABBV-319AbbVieCD19 ADC (GRM payload)
HN2301Shenzhen MagicRNACD19 CAR-T (autoimmune)
MC-1-50Chongqing PrecisionCD19
SC291Sana BiotechnologyCD19 CAR-T (autoimmune)
TI-0032-IIITherornaCD19 CAR-T (autoimmune)
axicabtagene ciloleucel (Yesc…Kite, A Gilead CompanyCD19 CAR-T
lisocabtagene maraleucel (Bre…Bristol-Myers SquibbCD19 CAR-T
Relma-celShanghai Ming JuCD19
CD19 t-haNKImmunityBioCD19
CC312CytoCaresCD19 × CD3 T-cell engager
P-CD19CD20-ALLO1PoseidaCD19
FCTX-CL19-1FamiCordTxCD19
MB-CART2019.1Miltenyi BiomedicineCD19/CD20 CAR-T (MS)

Beyond the grid Beta

What the matrix leaves out — rare mechanisms with only one player, small & emerging sponsors, and programs we haven’t classified yet.

White-space indications — a single asset 9 found

Indications where only ONE asset in this family competes — uncrowded ground for a new entrant.
⚡ first-in-class · 🌱 first-in-indication · 🆕 NME candidate · ✅ AI-classified + verified · ⚙️ AI-classified, unverified · first-in-class computed across 1 mapped landscape
More assets in this family (28) — same mechanism, beyond the matrix top 40 by activity
PhaseMechanismCompanyModalityReadoutTrial
Ph2 CD19 t-haNK- Administration — CD19 ImmunityBio IV/SC 2Q27 NCT07125872
Ph2 S1904 CD19 CAR-T — CD19 Hebei Senlang Cell therapy 1Q27 NCT07244406
Ph2 KTE-X19 — CD19 Kite, A Gilead Company 3Q27 NCT06253663
Ph2 LY3541860 — Anti-CD19 (mAb) Eli Lilly 4Q25 NCT06220669
Ph2 CAR-T-19 cell — CD19 Beijing Yongtai Ruike Cell therapy 2Q25 NCT06179524
Ph2 pCAR-19B cells — CD19 Chongqing Precision 4Q24 NCT05334823
Ph2 Human CD19Targeted T Cells — CD19 Hrain Cell therapy 3Q24 NCT05436223
Ph1+Ph2 GC012F — CD19 Gracell Cell therapy 1Q27 NCT06530849
Ph1+Ph2 GT719 — CD19 Grit Biotechnology 2Q28 NCT06948981
Ph1+Ph2 Prizloncabtagene autoleucel — CD19 Johnson & Johnson 4Q28 NCT05421663
Ph1+Ph2 Rondecabtagene autoleucel — CD19 Lyell Immunopharma 4Q28 NCT05826535
Ph1+Ph2 CRC01 — CD19 CAR-T (autoimmune) Curocell 2Q30 NCT07364396
Ph1+Ph2 AT101 — CD19 AbClon 1Q30 NCT05338931
Ph1 HB2198 — CD19/CD20 bispecific (mAb) Hinge Bio ⏰ 3Q26 NCT07439263
Ph1 Inaticabtagene Autoleucel — CD19 Juventas Cell Therapy ⏰ 3Q26 NCT07091370
Ph1 Anti-CD19 UCAR-T cells — CD19 Chongqing Precision Cell therapy ⏰ 4Q26 NCT06686524
Ph1 RJMty19 — CD19 Guangdong Ruishun ⏰ 4Q26 NCT06340490
Ph1 ssCART-19 — CD19 Shanghai Unicar-Therapy B… Cell therapy 1Q27 NCT07093073
Ph1 HN2302 — CD19 CAR-T (autoimmune) Shenzhen MagicRNA 4Q27 NCT07523282
Ph1 CPTX2309 — CD19 CAR-T (autoimmune) Capstan IV 4Q27 NCT06917742
Ph1 IASO-782 — Anti-CD19 (mAb) Shanghai IASO 3Q27 NCT07483346
Ph1 UB-VV410 — CD19 CAR-T (autoimmune) Nanjing IASO 2Q28 NCT07109986
Ph1 KN5501 cell — CD19 CAR-NK (autoimmune) Ruitherapeutics 3Q27 NCT07358988
Ph1 ARM011 — CD19 TriArm Therapeutics (Taiw… Cell therapy 2Q28 NCT07066397
Ph1 ABBV-519 — CD19 ADC (GRM payload) AbbVie SC 1Q29 NCT07607964
Ph1 ALA-101 — CD19 Arovella 1Q30 NCT07518329
Ph1 C402-CD19-CAR — CD19 Shanghai Exuma 1Q26 NCT06830031
Ph1 ZM001 — CD19 CAR-T (autoimmune) Beijing Immunochina Medic… 1Q26 NCT06852573
Trials not yet mapped to an indication (2) — trials of in-grid assets whose condition isn’t an indication column yet — surfaced per trial so none are hidden
PhaseMechanismCompanyModalityReadoutTrial
Ph2 zamtocabtagene autoleucel — CD19unclassified Miltenyi Biomedicine 4Q29 NCT06508931
Ph1 GT719 — CD19unclassified Grit Biotechnology 1Q28 NCT07021209

Frequently asked

Common questions about the CD19-targeted therapies landscape

What drugs are in the CD19-targeted therapies class?
70 assets in the CD19-targeted therapies class are tracked in this platform view, including YTS109 cell, Surovatamig, and rapcabtagene autoleucel (YTB323). The heatmap maps every drug against the indications it is being developed for.
What conditions are CD19-targeted therapies being developed for?
CD19-targeted therapies are in clinical development across 30 indications, including Lupus, Hodgkin, DLBCL, ALL, and Systemic Sclerosis.
How many CD19-targeted therapies are in late-stage trials?
Of the 70 tracked assets in the CD19-targeted therapies class, 14 are in Phase 3, developed by 56 sponsors, across 188 mapped trials.
What are the upcoming CD19-targeted therapies catalysts?
Near-term catalysts in this class include Obexelimab (data readout, Jun '26); YK012 (data readout, Jun '26); YTS109 cell (data readout, Aug '26). Dates combine estimated trial readouts and confirmed FDA decision dates.
How is the CD19-targeted therapies platform compiled?
Assets are compiled from a curated CD19-targeted therapies target roster and matched to their ClinicalTrials.gov trials (2008–present). Each cell links to the underlying trial records.
Is the CD19-targeted therapies heatmap free to use?
Yes — viewing and searching the CD19-targeted therapies heatmap is free. A TheraRadar Pro subscription adds advanced filters, row/column selection, and one-click export to PowerPoint, PDF, and CSV.
How this is built — methodology & limits

These grids are only as good as the data and the classification behind them — so here is exactly what goes in, what stays out, how every assignment is made, and where the limits are.

Where the data comes from

Every heatmap is built from the public ClinicalTrials.gov registry, via its official API — interventional drug and biologic trials with a start date of 2008 or later. The master index holds over 145,000 trials and is refreshed weekly (see the “updated” date on this page). A disease landscape draws only from the active, Phase 1–3, industry-sponsored slice of that index.

  • In scope: industry-sponsored trials in Phase 1, 2, or 3, with an active status (recruiting, active-not-recruiting, not-yet-recruiting, or enrolling by invitation). Phase 4 sits in the index but is left out of the landscapes.
  • Filtered out: deeply stale programs (a primary completion date more than two years past with no update to completed or terminated); basket trials and incidental mentions (a trial counts toward a disease only when that disease is genuinely the subject of study — not a secondary cohort, an organ-of-origin overlap, or a passing mention); and healthy-volunteer studies.

We do not exclude trials by sponsor geography. Where a sponsor is based in China, the program is flagged on the page rather than hidden, so you can weigh it yourself. An automated test fails the weekly refresh if the underlying index is more than 14 days old, so a published grid is never built on a stale index.

How a trial is matched to a disease

Matching uses a structured medical ontology, not keyword guessing, and is designed so that no trial is ever silently dropped — every trial that clears the filters gets a classification, even if that is just “Other.” It runs as an ordered sequence of steps, stopping at the first that applies:

  1. Healthy-volunteer studies are set aside as non-disease trials.
  2. Ontology match — each tracked disease is linked to its official identifiers in the standard medical taxonomy (MeSH), so a trial can be matched even when its text uses a synonym.
  3. Curated disease patterns — a hand-maintained library of over 150 disease-name patterns covers the more granular indications across oncology, hematology, infectious disease, cardiometabolic, immunology, and neuropsychiatry.
  4. Basket guard — a trial matching four or more distinct diseases, or carrying explicit basket language (“tumor-agnostic,” “all solid tumors,” “pan-cancer”), is grouped into a single advanced-solid-tumor category rather than over-counted across every cancer it touches.
  5. Therapeutic-area roll-up — a trial with no specific match, but which the taxonomy still places under a broad area, is assigned to that area (“Oncology — other,” “Immunology — other,” …), checking cancers first so a site-specific tumor isn’t filed under its anatomical system.

A “drop-if-parent-present” rule keeps a generic name from drowning out a subtype: a trial matching both lupus and lupus nephritis is reported only as lupus nephritis. Internal abbreviations are translated to the plain disease names used across the site (for example, “CRC” becomes “Colorectal Cancer”), and the same classifier is shared by every heatmap, so the same trial always maps to the same disease wherever it appears.

How a drug is matched to its mechanism

Mechanism of action is the hardest part to get right, so it is assigned in layers — leaning on curated and public data first, with AI as a last resort:

  1. Curated rulebook (first). A rulebook we maintain — over 600 drug-to-mechanism rules — is checked first, matching on drug names, trial acronyms, sponsor trial identifiers, and intervention lists. First match wins, which stops a combination trial from being counted several times.
  2. Public molecular-target data. Where no rule applies, each intervention’s target is looked up in a public target database, with verbose or gene-symbol labels normalized into consistent short forms so one target isn’t split across several columns.
  3. Standard-of-care backbones. A small set of rules recognizes common combination scaffolds (checkpoint-inhibitor monotherapy, standard chemotherapy regimens, established standard-of-care agents) so they aren’t mistaken for the experimental arm.
  4. AI as a last resort, then cross-checked. Only for genuinely opaque sponsor code-names that none of the first three steps can resolve do we ask an AI model to propose a mechanism — applied only above a fixed confidence bar, then automatically cross-checked against the sponsor’s own pipeline page. Where AI and the sponsor agree, the program is marked sponsor-verified. Where they contradict, the label is discarded entirely — not shown, not counted.

New mechanism rules are independently double-verified before they’re trusted — a second, adversarial pass set up to disprove the first — and each is checked so it can’t mislabel an unrelated trial. Drugs whose mechanism isn’t publicly disclosed are shown openly as “Emerging — not yet disclosed” rather than guessed at: for a tool meant to support real decisions, “we don’t yet know” is a more trustworthy answer than a confident guess.

Where AI is used — and where it isn’t

The disease and mechanism matching above is driven first by deterministic rules and public ontologies, not AI. AI plays three bounded, disclosed roles: (1) an optional extra check that a trial genuinely studies the disease, on top of the ontology match; (2) inferring a trial’s treatment setting on the competitive grids when the rules don’t cover it, only above a fixed confidence bar; and (3) the last-resort mechanism step above, always cross-checked against the sponsor’s disclosures. Wherever an AI label reaches a cell, the page marks it (⚙️ or ✅) — AI is never the silent, sole source of what you see.

What the on-page markers mean

  • ✅ Sponsor-verified — AI proposed the mechanism and it matched the sponsor’s own pipeline page. High-trust.
  • ⚙️ AI-classified — AI proposed it above the confidence bar but it has not yet been cross-checked against the sponsor. Useful; verify before citing. It never means a person reviewed it.
  • ⚡ First-in-class — the mechanism hasn’t appeared in any other disease landscape we’ve built. This reflects the scope of landscapes published so far (the tooltip lists exactly which were scanned), not an absolute claim about the whole market.
  • 🌱 First-in-indication — the only program competing on that mechanism within this disease.
  • 🆕 NME candidate — the interventions match no drug in our approved-drug index, suggesting a new molecular entity. The index is incomplete — a signal, not a regulatory fact.
  • 🔗 Combination · 👶 Pediatric · 🔥 Hot (readout within six months) · ⏳ Stale (completion date passed but still marked active — often a stalled program).

Sponsor names are resolved through a curated parent/subsidiary map; unrecognized sponsors appear under their raw registry name. The registry records the sponsor at a trial’s inception, so names are as originally filed and may not reflect later acquisitions. To keep large grids legible, mechanisms with a single program are listed separately rather than crowding the main grid, and very small players are listed below it — presentation choices only; nothing is removed from the underlying counts.

How we score programs — “what’s about to move”

Each program carries a 0–100 score that deliberately ranks imminence over raw stage — the most decision-relevant signal on a competitive grid. It is the sum of:

  • Clinical phase — up to 40 points (Phase 3 = 40, Phase 2 = 25, Phase 1 = 10).
  • Readout proximity — up to 60 points (next readout <6 months = 60, 6–12 months = 45, 1–2 years = 30, distant = 5).
  • Stale penalty — the score is halved if a trial is past its expected readout but still listed as active.

Cell colour on the grid is driven by this score, so a Phase 2 program about to read out can — correctly — outrank a dormant Phase 3 one. It answers “what’s about to move,” not just “what’s furthest along.”

What each grid plots

  • Indication landscape — one disease — companies (rows) × mechanism of action (columns): who is competing, and on what mechanism.
  • Company portfolio — one company — diseases (rows) × mechanism (columns): where it is active, and what it is betting on.
  • MOA platform (this page) — one mechanism family — drugs (rows) × diseases (columns): who is working on this class, and where.
  • Competitive landscape — one disease — mechanism (rows) × clinical setting (columns), aggregated across companies; setting columns are tailored per disease (e.g. lines of therapy in oncology; biologic-naïve vs. biologic-experienced in IBD).

What we don’t claim

  • First-in-class is editorial, not absolute — “not seen in the landscapes we’ve built,” not “novel across the industry.”
  • NME candidate is a signal, not a filing — absent from our (incomplete) approved-drug index.
  • Disease matching is automated and not exhaustively validated per disease — ontology and pattern matching can occasionally include or miss a trial.
  • AI-classified mechanisms are machine-proposed — unconfirmed unless they also carry ✅.
  • Sponsor names are as-filed and may lag current ownership.
  • Grids are as fresh as their last rebuild from the weekly index — no faster continuous refresh is claimed.

Data: ClinicalTrials.gov v2 API + FDA Drugs@FDA (approved-drug index). Spot an error? [email protected].

Data: ClinicalTrials.gov · Curated target-family roster · Trials registered 2008 onwards.