SCHEMBL15565864

SCHEMBL15565864

O=c1nc(-c2ccc(C(F)(F)F)cc2)[nH]c2c1CSCC2

nearest known ligand 0.67

Predicted protein targets (top 20)

geneUniProtsupporting neighboursconfidence
▸ TNKS2 Q9H2K2 12/20 0.67
▸ TNKS O95271 11/20 0.67
▸ PARP1 P09874 6/20 0.67
▸ PARP2 Q9UGN5 6/20 0.67
▸ WNT3A P56704 6/20 0.67
▸ PARP14 Q460N5 1/20 0.67
▸ PARP4 Q9UKK3 1/20 0.67
▸ AXIN2 Q9Y2T1 1/20 0.67
▸ PARP3 Q9Y6F1 1/20 0.67
▸ BRD4 O60885 1/20 0.46
▸ RAB9A P51151 1/20 0.39
▸ COMT P21964 1/20 0.39
▸ MAPK13 O15264 1/20 0.38
▸ RAF1 P04049 1/20 0.38
▸ MAPK12 P53778 1/20 0.38
▸ MAPK11 Q15759 1/20 0.38
▸ MAPK14 Q16539 1/20 0.38
▸ DGAT1 O75907 1/20 0.38
▸ SOAT1 P35610 1/20 0.38
▸ KCNH2 Q12809 1/20 0.38

Click a target to see other patent compounds predicted against it — the reverse direction, in place.

Similar compounds — the chemically nearest patent molecules

Nearest neighbours by Morgan-fingerprint cosine across the patent-compound collection, with each neighbour's top predicted target and the predicted targets it shares with this molecule.

Compoundsimilaritytop predictedshared targets
SCHEMBL7783488 0.80 TNKS2 (1.00) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL30870719 0.73 TNKS2 (0.78) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL27438554 0.68 TNKS2 (0.61) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL15105584 0.68 PARP1 (0.57) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL30870677 0.67 TNKS2 (0.75) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL27438538 0.67 TNKS2 (0.58) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL7776852 0.66 TNKS2 (0.73) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL27438107 0.66 TNKS2 (0.82) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL27438444 0.65 TNKS2 (0.80) TNKS2TNKSPARP1PARP2WNT3A
SCHEMBL15775354 0.65 TNKS (0.62) TNKS2TNKSPARP1PARP2WNT3A

Similarity is cosine over the 2,048-bit Morgan fingerprint (≈ Tanimoto). Identical fingerprints score 1.00.

Patent provenance — the patents this molecule appears in, and who filed them

Claimed or disclosed in 36 patents — showing the first 20. claimed = in the patent's claims; disclosed = body only.

PatentTitleAssigneePublishedPriorityFilingCountryStatus
US-20200147047-A1 Methods of Treating Resistant Cancers UNIVERSITY OF BALTIMORE, MARYLAND (US) 2020-05-14 — — US claimed
US-10624949-B1 Methods for treating diseases related to the wnt pathway NATIONAL TECHNOLOGY & ENGINEERING SOLUTIONS OF SANDIA, LLC (US) 2020-04-21 — — US claimed
WO-2018213748-A1 METHODS OF TREATING RESISTANT CANCERS UNIVERSITY OF MARYLAND, BALTIMORE (US) 2018-11-22 — — WO claimed
US-20150284683-A1 METHOD, COMBINATION AND/OR COMPOSITION FOR INDUCING CARDIOMYOCYTE DIFFERENTATION SINGAPORE HEALTH SERVICES PTE LTD (SG) 2015-10-08 — — US claimed
EP-2882848-A1 METHOD, COMBINATION AND/OR COMPOSITION FOR INDUCING CARDIOMYOCYTE DIFFERENTATION Singapore Health Services Pte Ltd (SG) 2015-06-17 — — EP claimed
WO-2014025315-A1 METHOD, COMBINATION AND/OR COMPOSITION FOR INDUCING CARDIOMYOCYTE DIFFERENTATION SINGAPORE HEALTH SERVICES PTE LTD (SG) 2014-02-13 — — WO claimed
EP-4689063-A1 COMPOSITIONS AND METHODS FOR DIFFERENTIATING RPE CELLS Stemcell Technologies Canada Inc. (CA) 2026-02-11 — — EP disclosed
US-20250114331-A1 CONCURRENT TARGETING OF ONCOGENIC PATHWAYS TO ENHANCE CHEMOTHERAPY AND IMMUNOTHERAPY UNIV JOHNS HOPKINS (US) 2025-04-10 — — US disclosed
WO-2024207102-A1 COMPOSITIONS AND METHODS FOR DIFFERENTIATING RPE CELLS STEMCELL TECHNOLOGIES CANADA INC. (CA) 2024-10-10 — — WO disclosed
US-20240240155-A1 Organoid-Derived Monolayers and Uses Thereof HUB ORGANOIDS IP B.V. (NL) 2024-07-18 — — US disclosed
US-20240240155-A1 Organoid-Derived Monolayers and Uses Thereof HUB ORGANOIDS IP B.V. (NL) 2024-07-18 — — US disclosed
EP-4376960-A1 CONCURRENT TARGETING OF ONCOGENIC PATHWAYS TO ENHANCE CHEMOTHERAPY AND IMMUNOTHERAPY The Johns Hopkins University (US) 2024-06-05 — — EP disclosed
CN-118021814-A Combination therapy with EHMT2 inhibitors EPIZYME股份有限公司 2024-05-14 — — CN disclosed
US-10391168-B1 Anti-CD70 combination therapy UNIVERSITY OF BERN (CH) 2019-08-27 — — US disclosed
WO-2018213748-A1 METHODS OF TREATING RESISTANT CANCERS UNIVERSITY OF MARYLAND, BALTIMORE (US) 2018-11-22 — — WO disclosed
WO-2018195450-A1 COMBINATION THERAPIES WITH EHMT2 INHIBITORS Epizyme, Inc. (US) 2018-10-25 — — WO disclosed
WO-2017156350-A1 METHODS OF CANCER TREATMENT K-GEN, INC. (US) 2017-09-14 — — WO disclosed
US-20150284683-A1 METHOD, COMBINATION AND/OR COMPOSITION FOR INDUCING CARDIOMYOCYTE DIFFERENTATION SINGAPORE HEALTH SERVICES PTE LTD (SG) 2015-10-08 — — US disclosed
EP-2882848-A1 METHOD, COMBINATION AND/OR COMPOSITION FOR INDUCING CARDIOMYOCYTE DIFFERENTATION Singapore Health Services Pte Ltd (SG) 2015-06-17 — — EP disclosed
WO-2014025315-A1 METHOD, COMBINATION AND/OR COMPOSITION FOR INDUCING CARDIOMYOCYTE DIFFERENTATION SINGAPORE HEALTH SERVICES PTE LTD (SG) 2014-02-13 — — WO disclosed

Patent text — is the patent's own abstract consistent with the prediction?

For each of this compound's patents that has machine-readable text (1 of them — usually the abstract, not the full specification), we ask MedCPT which protein the text reads most about, and where the chemistry-predicted target lands among 4885 human targets. A high rank means the patent's own wording is consistent with the prediction — a weak, independent signal, not proof of activity.

PatentTitleText reads most aboutPredicted target · text-rank
US-10391168-B1 Anti-CD70 combination therapy ABL1, BCR, CD2BP2 TNKS2 1492/4885TNKS 2446/4885PARP1 4521/4885

“Text reads most about” is the patent abstract's nearest protein in MedCPT space (background-debiased). Only ~1.4% of patents have machine-readable text, so most compounds won't have this panel.

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