Known targets — ChEMBL curated mechanism
ABCC9ABL1ACEACHEACVR1ADORA1ADORA2AADORA2BADORA3ADRA1AADRA1BADRA1DADRA2AADRA2BADRA2CADRB1ADRB2ADRB3AGTR1ALOX5ATP4AATP4BBCRBTKCACNA1ACACNA1BCACNA1CCACNA1DCACNA1ECACNA1FCACNA1GCACNA1HCACNA1ICACNA1SCACNA2D1CACNA2D2CACNA2D3CACNA2D4CACNB1CACNB2CACNB3CACNB4CACNG1CACNG2CACNG3CACNG4CACNG5CACNG6CACNG7CACNG8CALCRLCFBCHRM1CHRM2CHRM3CHRM4CHRM5CHRNA1CHRNB1CHRNDCHRNECHRNGCRBNCUL4ACXCR1CXCR2DDB1DDCDHFRDPP4DRD2DRD3DRD4EGFRERBB2ERBB4ESR1ESR2FDPSFKBP1AFLT1FLT3FLT4GARTGHSRGRIA1GRIA2GRIA3GRIA4GRIK1GRIK2GRIK3GRIK4GRIK5GRIN2AGSK3AGSK3BHDAC1HDAC10HDAC11HDAC2HDAC3HDAC4HDAC5HDAC6HDAC7HDAC8HDAC9HRH1HTR1AHTR1BHTR1DHTR1EHTR1FHTR2AHTR2BHTR2CHTR3AHTR3BHTR3CHTR3DHTR3EHTR4HTR5AHTR6HTR7IDH1IDH2IMPA1ITGA2BITGB3JAK1JAK2JAK3KCNJ11KCNK3KCNK9KDRKITMEN1METMMP1MMP13MMP7MMP8NANOD2NS5bODC1OPG057OPRD1OPRK1OPRM1PPARP1PARP2PDE3APDE3BPDE4APDE4BPDE4CPDE4DPDGFRBPIK3CAPIK3CBPIK3CDPIK3CGPIK3R1PIK3R2PIK3R3PIK3R5PKLRPPARDPPATPTGS1PTGS2RBX1ROCK1ROCK2RRM1RRM2RRM2BSCN10ASCN11ASCN1ASCN2ASCN3ASCN4ASCN5ASCN7ASCN8ASCN9ASCNN1ASCNN1BSCNN1GSIGMAR1SLC10A2SLC5A2SLC6A2SLC6A3SLC6A4SLC9A3SYKTACR1THRATHRBTOP1TUBA1ATUBA1BTUBA1CTUBA3CTUBA3ETUBA4ATUBBTUBB1TUBB2ATUBB2BTUBB3TUBB4ATUBB4BTUBB6TUBB8TYK2TYMSVDRampCblablaT-3blaT-4blaT-5blaT-6blaUOE-1dacAdacBdacCfolAfolPftsIgyrAgyrBileSmecAmrcAmrcBmrdAparCparEpbp2pbp4pbpApbpFrplArplBrplCrplDrplErplFrplIrplJrplKrplLrplMrplNrplOrplPrplQrplRrplSrplTrplUrplVrplWrplXrplYrpmArpmBrpmCrpmDrpmErpmE2rpmFrpmGrpmG1rpmG2rpmG3rpmHrpmIrpmJrpsArpsBrpsCrpsDrpsErpsFrpsGrpsHrpsIrpsJrpsKrpsLrpsMrpsNrpsOrpsPrpsQrpsRrpsSrpsTrpsUthyAykgMykgO
The experimentally established mechanism targets of Water. The predicted profile below is derived independently by chemical similarity — agreement is a validation signal, a miss is honest.
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.
| Compound | similarity | top predicted | shared targets | |
|---|---|---|---|---|
| Water SCHEMBL28746176 | 0.89 | — | — | |
| Water SCHEMBL156998 | 0.89 | — | — | |
| Water SCHEMBL6706641 | 0.89 | — | — | |
| Water SCHEMBL28764391 | 0.89 | — | — | |
| Water SCHEMBL1162556 | 0.87 | — | — | |
| Water SCHEMBL4465834 | 0.87 | — | — | |
| Water SCHEMBL152769 | 0.87 | — | — | |
| Water SCHEMBL11249340 | 0.87 | — | — | |
| Water SCHEMBL9350368 | 0.82 | — | — | |
| Water SCHEMBL887108 | 0.75 | — | — |
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 42 patents — showing the first 20. claimed = in the patent's claims; disclosed = body only.
| Patent | Title | Assignee | Published | Priority | Filing | Country | Status |
|---|---|---|---|---|---|---|---|
| CN-117491917-A | Characterization method of II-type superconductor magnetic flux vortex phase based on magneto-electric layered structure | 重庆大学 | 2024-02-02 | — | — | CN | claimed |
| US-20210292819-A1 | MULTIPLEX NUCLEIC ACID DETECTION | HEWLETT-PACKARD DEVELOPMENT COMPANY, L.P. (US) | 2021-09-23 | — | — | US | claimed |
| EP-3824099-A1 | MULTIPLEX NUCLEIC ACID DETECTION | Hewlett-Packard Development Company, L.P. (US) | 2021-05-26 | — | — | EP | claimed |
| WO-2020122922-A1 | MULTIPLEX NUCLEIC ACID DETECTION | HEWLETT-PACKARD DEVELOPMENT COMPANY, L.P. (US) | 2020-06-18 | — | — | WO | claimed |
| US-4968665-A | IMPROVED THERMOCONDUCTIVITY, ELECTRICAL RESISTANCE AND MECHANICAL STRENGTH | MITSUBISHI METAL CORPORATION (JP) | 1990-11-06 | — | — | US | claimed |
| CN-117491917-A | Characterization method of II-type superconductor magnetic flux vortex phase based on magneto-electric layered structure | 重庆大学 | 2024-02-02 | — | — | CN | disclosed |
| US-20230402196-A1 | PASSIVE MAGNETIC SHIELDING OF STRUCTURES IMMERSED IN PLASMA USING SUPERCONDUCTORS | LOCKHEED MARTIN CORPORATION | 2023-12-14 | — | — | US | disclosed |
| US-11776700-B2 | Using superconductors to provide passive magnetic shielding of structures immersed in plasma | LOCKHEED MARTIN CORPORATION (US) | 2023-10-03 | — | — | US | disclosed |
| US-20210319938-A1 | BENT TOROIDAL FIELD COILS | TOKAMAK ENERGY LTD. (GB) | 2021-10-14 | — | — | US | disclosed |
| US-20210292819-A1 | MULTIPLEX NUCLEIC ACID DETECTION | HEWLETT-PACKARD DEVELOPMENT COMPANY, L.P. (US) | 2021-09-23 | — | — | US | disclosed |
| EP-3673520-B1 | SUPERCONDUCTING JOINT USING EXFOLIATED REBCO | TOKAMAK ENERGY LTD (GB) | 2021-09-22 | — | — | EP | disclosed |
| EP-3847678-A1 | BENT TOROIDAL FIELD COILS | Tokamak Energy Ltd (GB) | 2021-07-14 | — | — | EP | disclosed |
| EP-0545608-A2 | Superconducting joint for oxide superconductor tape | GENERAL ELECTRIC COMPANY (US) | 1993-06-09 | — | — | EP | disclosed |
| US-5204313-A | Forming precursor containing bismuth, lead, copper, calcium, strontium on substrate surface of silver, gold or platinum group metal, heating | EASTMAN KODAK COMPANY (US) | 1993-04-20 | — | — | US | disclosed |
| US-5192739-A | METHOD OF FORMING A TAPE OF THE HIGH TEMPERATURE OXIDE SUPERCONDUCTORS | GENERAL ELECTRIC COMPANY (US) | 1993-03-09 | — | — | US | disclosed |
| US-5189010-A | Oxides of copper, alkaline earth metal, bismuth or combination of antimony and lead, calcium, and/or lanthanide and yttrium | EASTMAN KODAK COMPANY (US) | 1993-02-23 | — | — | US | disclosed |
| WO-1993000712-A1 | METHOD OF FORMING A TAPE OF THE HIGH TEMPERATURE OXIDE SUPERCONDUCTORS | GENERAL ELECTRIC COMPANY (US) | 1993-01-07 | — | — | WO | disclosed |
| US-5173678-A | Formed-to-shape superconducting coil | GTE LABORATORIES INCORPORATED (US) | 1992-12-22 | — | — | US | disclosed |
| US-5087607-A | Process for preparing superconductive thick films | EASTMAN KODAK COMPANY (US) | 1992-02-11 | — | — | US | disclosed |
| US-5063199-A | Method of depositing thin films of high temperature Bi-Sr-Ca-Cu-O-based ceramic oxide superconductors | MINNESOTA MINING AND MANUFACTURING COMPANY (US) | 1991-11-05 | — | — | US | disclosed |