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B1243 Vol-1Œ25 Cumulative Index.Qxd b1243_ Vol-1 25_Cumulative Index.qxd 9/13/2012 11:02 AM Page 1 FA Cumulative Index to Volumes 1–25* A esters, IV: 8–10, IV: 366 1-Acyldipyrromethanes, XXIII: 112 formation statistical cis-AB porphyrin from two C5-pathway to, XV: 164–165, non-identical, XXIII: 101 XV: 170–175 trans-A2B2 magnesium porphyrin from, Shemin pathway to, XV: 164–170 XXIII: 101 leishmaniasis treatment by ALA or Metvix 1-Azidohexadecanethiol, XXI: 29 (ALA methyl ester), IV: 285 2,3-Anthraporphyrins, II:32, II:38 peptide derivatives, IV: 9–10 2-Arylaminoporphyrins, Buchwald–Hartwig as photodynamic therapy (PDT) agent, reaction and, II:241 IV: 7–8, IV: 285 2-Aza-21-carbaporphyrin. See N-confused structure, IV: 329 porphyrin (NCP) synthetic peptide conjugates, IV: 348–349 2-Aza-5,10,15,20-tetraphenyl-21- transport out of mitochondria of, carbaporphyrin, II:106, II: 107 XV: 10–11 2-Azabenziporphyrin, synthesis and metalation undecyl 5-aminolevulinate (Und-ALA), of, XVI: 192 IV: 366 3,4-Alkylenedioxypyrroles, XVII: 264 5-(4-Aminophenyl)-10,15,20-triphenylporphyrin 3-Acetyl-bacteriochlorins (semisynthetic Ag(II), Cu(II), Ni(II), Zn(II), and Pd(II) chlorophylls), XI: 263–265 complexes’ microwave-assisted 3-Aminotriazole (3-AT), IV: 413 synthesis of, II: 199–200 3-Azabenziporphyrin, synthesis and Fe(III) and Mn(III) complexes’ microwave- protonation of, XVI: 194 assisted synthesis of, II: 200 5-Alkenyl-15-alkynyl–porphyrin, XXIII: 97 17-Allylamino-17-methoxygeldanamycin 5-Aminolevulinic acid (ALA), XX: 7, (17-AAG), IV: 439–440 XX: 219, XX: 221 [18]Annulene, II: 173 adenosine and thymidine conjugates, 22-Acetoxydimethoxybenziporphyrins, proton IV: 10, IV: 12 NMR chemical shifts for, XVI: 117 ALA-based photosensitizers, IV: 7–11, 22-Acetoxy-m-benziporphyrin, II: 145 IV: 12 22-Acetoxytetraphenylbenziporphyrin, ALA derivatives as multifunctional agents, hydrolysis and metalation of, XVI: 149 IV: 10 22-Alkylbenzocarbaporphyrins, with conversion into iron-PPIX, XV: 5 palladium(II) acetate, metalation of, conversion into uroporphyrinogen III XVI: 48 (Urogen), XX: 220 α-Adenosyl-cobalamin, XXV: 148 dendritic ALA, IV: 369–371 α-Cyanodiazo reagents, XXI: 216 * Volume numbers are given in Roman numerals followed by a colon and precede the relevant pages. 1 b1243_ Vol-1 25_Cumulative Index.qxd 9/13/2012 11:02 AM Page 2 FA 2 Cumulative Index to Volumes 1–25 α-Free dipyrromethane, XXI: 116 conjugated porphyrin arrays and, I: 4 α-Functionalized isoindoles, synthesis of corrphycenes and, VII: 383, VII: 390–392 TBPs and Pcs and, II: 6 equine hemoproteins and, VII: 157–160 α-Phycoerythrocyanin (α-PEC), XXII: 4, 16 and film on cuvette walls for BChl mimics, phycoviolobilin (PVB) chromophore in, I: 259–262 Φ XXII: 5 fluorescence spectra/quantum yields ( F) A1B3-porphyrin, XXIII: 37 and, VII: 281–282 A2B2-porphyrin, XXIII free-base starting from mono-α-protected pyrrole, porphycenes VII: 380–390 XXIII: 100 porphyrin electronic spectras and Qx/Qy A3B1-porphyrin, XXIII: 37 notation, VII: 380–381 A3 porphyrins from mixed dipyrromethane fused structures and, I: 78–79, I: 81–82 condensation, XXIII: 99 future outlook of charge transfers and, I: 208 A4-porphyrin, XXIII: 37 hemiporphycenes and, VII: 383, AB and AB2 porphyrins, synthesis of, VII: 390–392 XXIII: 126 ionic pyrene derivatives and SWNT, AB3-type phthalocyanine, preparation, I: 201–202 XVIII: 246 isoporphycene derivatives and, ABC mitochondrial erythroid (ABC-me), and VII: 390–392 transport of PPIX to FECH, XV: 15 maxima. See Electronic absorption ABCB6 maxima and FECH interaction with PPIX oxidase, metal-bridged porphyrin arrays and, I: 110, XV: 95–96 I: 112 and transport of CPgenIII into/PPgenIX metallotetrapyrrole-fullerene dyads and, within mitochondria, XV: 12–13 I: 313 ABCB7, and transport of PPIX to FECH, of methyl 3-substituted pyropheophorbides, XV: 15 XI: 243–244 ABCB10, XV: 97–98 nanometer scale structures and, I: 136 and transport of PPIX to FECH, XV: 15 non-covalently linked hybrids (MP/C60 ABCD-porphyrin, XXIII: 59 β-systems) and, I: 183–184 via bilanes, route to, XXIII: 114 non-covalently linked hybrids (ZnP Absolute configurations, of natural products via functions) and, I: 179 conformational analysis, VII: 232–239 and optical properties (summary) of Absorption. See also Infrared spectroscopy/ porphyrinoids, XIV: 480–481 microscopy; Spectroscopic data inter- perimeter model for absorption elucidation, pretation; Photophysical properties of VII: 392–397 expanded porphyrins; Photophysical π-skeletal effect in organic solvents and, properties of porphyrin arrays XI: 229–230 chlorophylls and, XI: 226 photophysical processes after light of chlorophyll/bacteriochlorophyll/chlorin/ absorption and Jablonski diagram, bacteriochlorin systems, VII: 179–181 VII: 268 of chlorophyll hetero-dyads, VII: 196–197 and photophysical properties of aromatic and chlorosomal bacteriochlorophylls, rings with increasing numbers of I: 229–230 π electrons, XIV: 485–486, circular dichroism (CD)/electronic XIV: 485–486 absorption spectra and hemoglobin, porphyrinoids and origin of intensity of, VII: 154–156 XIV: 476–477 b1243_ Vol-1 25_Cumulative Index.qxd 9/13/2012 11:02 AM Page 3 FA Cumulative Index to Volumes 1–25 3 predicted absorption spectra based on Acid-acetone method, and removal of heme TD-DFT/ZINDO/s methods, from heme pocket, V: 7 XIV: 514–515 Acid-alcohol pair sequential, cytochrome P450 prototropic tautomer detection, XIV: 483–485 enzymes and, V: 185–186 radiative/nonradiative rates for Acidic reaction porphycenes and derivatives, and preparation of 3,6-bis(trifluoromethyl)- VII: 401, VII: 403 phthalonitrile, III: 72, III: 76 spectra of butadiyne-linked porphyrin trialkylsilyl-substituted phthalocyanines dimer, I: 4, I: 7 and, III: 45 and SWNT functionalized with PMMA Acid-labile metalloporphyrin, synthesis of, dendrimers, I: 195 I: 49 synthetic heme systems and, VII: 165–171 Acidobacteria, I: 223, XX: 108 and transmetalation of Mg to Zn in Acridine, IV: 3, IV: 23, IV: 409, IV: 410 bacteriochlorophyll a, XI: 234 AcsF (aerobic cyclization system for toluene solutions, VII: 403 Fe-containing subunit), XX: 13–14, UV-vis-IR absorption spectra of porphyrins XX: 117 and meso-meso-linked porphyrin Actinide derivatives, metalloporphyrin arrays, XIV: 483 derivatives, XXIV: 125–126 Abzymes, FECH mimetics/distortion and, Actinide elements absorption spectra, IX: 37–39 XV: 84 Activatable photosensitizer conjugates, Acenaphtho[1,2-b]porphyrins (AcePs), II: 48 IV: 281–284, IV: 285–286 Acenaphthoporphyrins, properties of, XIII: Activator protein 1 (AP-1), IV: 430 10–11 Active oxygen. See Compound I Acetonitrile (ACN) Active targeting, IV: 330, IV: 332–354 electropolymerization and, XII: 246 antimicrobial PDT, IV: 388–389 nickel porphyrins in alkaline solution and, avidin-biotin complex (AB-C), IV: 330–331 XII: 265 dendrimers, IV: 331 poly(Co(II)-31) films and, XII: 258–259 modular carrier systems, IV: 36, Acetylamino-substituted phthalocyanines, IV: 330–331, IV: 341, IV: 374 examples of, III: 115–118 multiplying units in antibody conjugates, Acetylcholinesterases (AChEs), and enzyme IV: 330–331, IV: 335, IV: 342, inhibition-based biosensors, V: 218 IV: 369, IV: 374 Acetylene-linked contracted porphyrinoids, photoimmunotherapy, overview, IV: 330, synthesis of, XVI: 312 IV: 332–333 Acetylene photosensitizer conjugates for active bonds, ethynyl-conjugated porphyrin arrays targeting, overview, IV: 355–362 and, I: 6 polyphasic tumor targeting (PTT), derivative/N-fused porphyrin coupling, IV: 330–331 Sonogashira C–C coupling reactions See also Cellular targeting; Monoclonal and, III: 344 antibodies (MAb); Passive targeting; Acetylenic crown ether-appended zinc specific conjugate types porphyrin, XXIV: 241 Acute intermittent porphyria (AIP), XV: 183 Acetylenic porphyrins, Sonogashira C–C Acyclic coupling reactions and, III: 341–342 anion receptors, VIII: 167–168. See also Acetylenyl bridged porphyrins, access to Pyrrole-based π-conjugated acyclic highly conjugated, XXIII: 238 anion receptors b1243_ Vol-1 25_Cumulative Index.qxd 9/13/2012 11:02 AM Page 4 FA 4 Cumulative Index to Volumes 1–25 zinc porphyrin dimer, supramolecular Adenosyl-imidazolyl-cobamide, XXV: 139 polymerization of, I: 52 Adenosyltransferases, XXV: 206–208 Acyclic dipyrromethane, XXIII: 14 CobA from S. enterica, mechanism and Acyl carrier protein (ACP), XIX: 83 crystal structure of, XXV: 45 complex formed between P450(BioI) PduO-type adenosyltransferase, XXV: 206 and, XIX: 84 structure of, XXV: 207 Acyl-CoA-mutases, XXV: 183–187 adj-Diazuliporphyrins ethylmalonyl-CoA mutase (ECM), metalation of, XVI: 266 XXV: 186–187 synthesis and protonation of, XVI: 264 isobutyryl-CoA mutase (ICM), XXV: 187 crystal structure of, II: 169 methylmalonyl-CoA-mutase (MCM), adj-Dicarbaporphyrin, XVI: 246 XXV: 183–186 coordinated complexes of, II: 167–168, Acylation with excess of reagents, XXIII: 116 II: 169 Adaptability, antenna pigments and, XI: 7 adj-Dicarbaporphyrinoids, XVI: 252–275 Adeninyl-3-propyl-cobalamin, XXV: 148 systems, retrosynthetic analysis of, XVI: 255 Adeninylcobamides, XXV: 139 Adler–Longo method, XXIII: 86 Adenosine diphosphate (ADP), nanoparticles Adler–Longo–Lindsey methods, XXIII: 87 and, XII: 366 Adler-type reactions Adenosine phosphosulfate (APS), XIX: 143 Adler-Longo porphyrin synthesis Adenosine triphosphate (ATP), nanoparticles procedure, III: 432–433 and, XII: 366 and combinatorial chemistry of porphyrins, Adenosylcobalamin, XXV: 69 III: 493–498 synthesis of, XXV: 69 six-member libraries using two different Adenosylcobamides, XXV: 234–235 aldehydes, III: 525–529 Adenosylcob(III)yric
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