コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 optical fine-tuning of meso-aryl-substituted bacteriochlorins.
2 nd contrasted against benchmark chlorins and bacteriochlorins.
3 rted concerning the synthesis of substituted bacteriochlorins.
4 nce the capabilities for tailoring synthetic bacteriochlorins.
5 agents within the optical window of tissue, bacteriochlorins (2,3,12,13-tetrahydroporphyrins) promis
7 ring a 1,3-dioxolan-2-yl moiety afforded the bacteriochlorin (30% yield) containing a 2-hydroxyethoxy
10 results in relatively strong emission of the bacteriochlorin acceptor, with a quantum yield Phif rang
14 prepared and oxidatively stable chlorin and bacteriochlorin analogues with tunable optical spectra t
16 a readily separable mixture of two free base bacteriochlorins and a free base B,D-tetradehydrocorrin.
17 -harvesting porphyrins, chlorins, and mainly bacteriochlorins and are also known for being efficient
20 comprising a near-IR absorbing and emitting bacteriochlorin, and BODIPY derivatives with different a
22 ent strengths of the porphins, chlorins, and bacteriochlorins are 1.5-2.5 times stronger than for ben
23 The current strengths of the chlorins and bacteriochlorins are 19-24 nA/T depending on whether the
27 ctra of the mono- and bis-chromene-annulated bacteriochlorins are modulated as a result of the annula
29 exciting results, we believe that platinated bacteriochlorins are promising candidates for further in
32 , with absorption between 500-700 nm, BODIPY-bacteriochlorin arrays should allow for construction of
34 (HPPH) and structurally related chlorins and bacteriochlorins at different positions of the tetrapyrr
35 of peripheral functional groups makes these bacteriochlorins attractive candidates for diverse appli
36 e report an innovative approach to producing bacteriochlorins (bacs) via formal cycloaddition by subj
38 ion of a free-base chlorin generally forms a bacteriochlorin (BC), while the reduction of the corresp
39 inated chromophores, which include synthetic bacteriochlorins (BC1, BC2) with strong near-infrared ab
42 , Sonogashira, Hartwig-Buchwald) to give six bacteriochlorins bearing functional groups at the 15-pos
44 , the characteristic absorbance bands of the bacteriochlorins bound to the polypeptides within the re
46 rins are thus excellent models for localized bacteriochlorin chromophore deformations that are sugges
48 s vary the tetrapyrrole (porphyrin, chlorin, bacteriochlorin), chromophore (boron-dipyrrin, perylene,
57 nediyne linker in hydroporphyrin (chlorin or bacteriochlorin) dyads leads to thermally stable cis iso
59 id catalysis conditions has afforded diverse bacteriochlorins (e.g., bearing alkyl/ester, aryl/ester,
61 ical properties of a series of novel chlorin-bacteriochlorin energy transfer dyads are described.
65 r, this study expands the scope of available bacteriochlorins for fundamental studies and diverse app
67 nge between 4 A to 11 A and that between two bacteriochlorins from different subunits is more than 20
68 er with near-infrared absorption gives these bacteriochlorins great potential as photosensitizers for
71 teriochlorin (MeOBC-type), a 5-unsubstituted bacteriochlorin (HBC-type), and a free base B,D-tetradeh
72 s two geminal dimethyl groups to lock-in the bacteriochlorin hydrogenation level, p-tolyl substituent
73 nsequently (3) access to diverse substituted bacteriochlorins including those with substituents at th
75 of a bis-chromene-annulated chlorin from the bacteriochlorins is also described, including its X-ray
79 hereby maintaining an 18-atom 18-pi electron bacteriochlorin-like aromatic delocalization pathway.
82 Microscopy reveals that the least effective bacteriochlorin localizes predominantly in lysosomes, wh
84 unit attached to pyrroline ring B forms the bacteriochlorin macrocycle, and (ii) Nazarov cyclization
86 parable with that observed for corresponding bacteriochlorin monomer, and is significantly reduced in
88 dination chemistry (e.g., Zn, Cd, Ni), (2) a bacteriochlorin oxidation state of the macrocyclic ring,
89 t energy transfer (>/=0.77) even for chlorin-bacteriochlorin pairs with large (up to 122 nm) separati
90 ers of redaporfin (a fluorinated sulfonamide bacteriochlorin photosensitizer of 1135 Da) are separabl
92 orescent probes show that the most effective bacteriochlorin produces significantly higher levels of
93 es of the isolated porphyrins, chlorins, and bacteriochlorins, related to Bchl a, were assigned on th
94 ds between LH2 alphabeta-side chains and the bacteriochlorin rings, further emphasizing the major rol
96 pared from commercially available reactants (bacteriochlorin sites): ((13)C)paraformaldehyde (1, 11);
98 of synthetic plans for early installation of bacteriochlorin substituents via the dihydrodipyrrin-ace
99 differ in the levels of pigmentation; 3 new bacteriochlorins successfully overcame the resistance.
101 r-TBB stabilizes 5,10,15,20-tetra(p-benzoato)bacteriochlorin (TBB) ligands toward oxygen and light vi
104 single-isotopic substitution gives rise to a bacteriochlorin that contains two isotopic substitutions
105 may provide simple strategies for designing bacteriochlorins that efficiently generate ROS upon phot
107 groups at a specific site enables synthetic bacteriochlorins to be tailored for a variety of applica
108 ect of indocyanine green, Photodithazine(R), bacteriochlorin-trizma, and protoporphyrin IX against St
109 ties is described, generating inter alia the bacteriochlorin-type chromophores oxazolobacteriochlorin
112 formation of the dihydrodipyrrin-acetal and bacteriochlorin underpins evaluation of synthetic plans
114 a building block in the synthesis of diverse bacteriochlorins via Pd-mediated coupling reactions (Son
119 ining PEG-substituted BODIPY and chlorins or bacteriochlorins were prepared and their optical and flu
122 novo synthesis has been employed to prepare bacteriochlorins wherein each macrocycle contains a pair
123 ring with KOH/propanol produced an "unstable bacteriochlorin", which decomposed in acidic conditions
125 thalene afforded highly conjugated annulated bacteriochlorins with fused quinoxaline, benzimidazole,