1. Exploring New Chemical Space by Stereocontrolled Diversity-Oriented Synthesis 
Prabhat Arya, Reni Joseph, Zhonghong Gan, Bojana Rakic 
Chemistry & Biology 
Volume 12, Issue 2, Pages (February 2005)
DOI: /j.chembiol
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2. Figure 1
Kapoor and Coworkers’ Solid-Phase Synthesis of HR22C16 Analogs that Utilized a Stereocontrolled Pictet-Spengler Approach
Taken from the article by Hotha et al. [30].
(A) Schematic representation of the assay. Vertebrate cells (BS-C-1) in multiwell plates are stained for the actin cytoskeleton and are imaged from below by using a 4× objective.
(B) The effect of a compound that causes no morphological change.
(C and D) (C) The effect of HR22C16 and (D) the configuration of microtubules in a (left) control cell and a (right) HR22C16-treated cell.
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3. Figure 2
Application of a Domino Reaction Combined with Enantioselective Hydrogenation to Obtain Emetine Analogs by Tietze and Coworkers
See [31].
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4. Figure 3
Waldmann and Coworkers’ Solid-Phase Synthesis of Dysidiolide-Derived Protein Phosphatase Inhibitors
See [32].
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5. Figure 4 Takahashi and Coworkers’ Solid-Phase Approach to Vitamin D3
See [33, 34].
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6. Figure 5
Myers and Coworkers’ Enantioselective Solid-Phase Synthesis of Saframycin Analogs
See [36, 37].
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7. Figure 6
Bioactive Spiroketal Moieties Embedded in Spongistatin and Okadaic Acid
Waldmann and coworkers’ [40] enantioselective, aldol-based solid-phase synthesis of the spiroketal library.
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8. Figure 7
Schreiber and Coworkers’ DOS Approach to Obtain Skeletally Diverse Natural Product-like Compounds
See [43].
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9. Figure 8 Schreiber and Coworkers’ Approach to 2H-Pyran Derivatives
(A) An application of enantioselective Lewis acid catalysis on solid phase to obtain a library of substituted 2H-pyrans.
(B) Small-molecule microarray of compounds obtained from a substituted 2H-pyran library (taken from [46]).
See [45, 46].
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10. Figure 9 Schreiber and Coworkers’ Approach
(A) A library of small molecules containing atrop-diastereodefined, medium-sized rings.
(B) (a and b) Plant and (c and d) Zebrafish assay: (a) 7-day-old Arabidopsis seedlings germinated on agar containing 1% DMSO and a small-molecule library member (10 μm). (b) 7-day-old control experiment. (c) Synchronized Zebrafish embryos upon treatment with a small-molecule library member (100 nM); these embryos are slow to develop, and they exhibit lower than normal pigmentation, weak hearts, abnormal brains, and misshapen jaws. (d) Synchronized embryos upon treatment with the same library member (5 μm); Zebrafish look indistinguishable from untreated controls (taken from [48]).
See [47, 48].
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11. Figure 10
Schreiber and Coworkers’ Boronic Ester Annulation/Diels-Alder Approach
See [49, 50].
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12. Figure 11
Schreiber and Coworkers’ DOS Approach to Obtain Polycyclic Compounds from Glycals
See [51].
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13. Figure 12
An Asymmetric Cycloaddition Approach by Schreiber and Coworkers
(A) A cycloaddition approach with triene to obtain polycyclic compounds.
(B) An approach to immobilize small molecules having an acidic proton on an aminopropyl glass surface by Schreiber and coworkers.
(C) Few library members identified as Calmodulin protein binding agents.
See [55, 57].
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14. Figure 13
An Application of Immobilized Dihydroisoquinoline to Obtain Skeletally Different Compounds
See [60].
Chemistry & Biology  , DOI: ( /j.chembiol )
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15. Figure 14
Arya and Coworkers’ Stereocontrolled DOS to Obtain Tetrahydroquinoline-Derived, Natural Product-like, Polycyclic Compounds
See [60].
Chemistry & Biology  , DOI: ( /j.chembiol )
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16. Figure 15 Ring-Closing Metathesis Approach by Arya and Coworkers
(A) RCM approach to obtain natural product-like, polycyclic compounds.
(B) Regio- and stereoselective hetero-Michael approach to tetrahydroquinoline-based, polycyclic compounds.
(C) Stereocontrolled solid-phase synthesis of tetrahydroquinoline-based, natural product-like, polycyclic compounds.
See [60].
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17. Figure 16 Stereocontrolled Diversity-Oriented Reactions
(A) Tetrahydroquinoline-derived, polycyclic compounds having a functionalized 8-membered ring.
(B) Ring conformation-controlled, asymmetric conjugate addition.
See [61].
Chemistry & Biology  , DOI: ( /j.chembiol )
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18. Figure 17
Natural Product-like Compounds with a Bridged, Medium-Sized Ring
(A) Tetrahydroquinoline-based polycyclics having a functionalized, bridged, 10-membered ring.
(B) Solid-phase synthesis of tetrahydroquinoline-based, polycyclic compounds with a bridged, 10-membered ring.
See [66].
Chemistry & Biology  , DOI: ( /j.chembiol )
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