Bai yi shan fang shi ji : 12 juan /

Renhe Sun Jun kan ben, Wujun Zhou Jianning juan.

Bai jing lou shi ji : 12 juan /

Block print.

Bai tan ji : 2 juan /

Block print.

Bai lian pan wen ji can gao /

Block print.

Bai hu wen gao : 8 juan, shi gao : 8 juan /

v. 3 fu: Bai hu Ye jun mu zhi ming / Qin Ying zhuan.

Bai yun cao tang shi chao : 3 juan /

Double leaves, oriental style, in case.

Bai ting shi cao : 16 juan /

Double leaves, oriental style, in case.

Chong bai yao zhai wen ji : 20 juan /

Double leaves, oriental style, in case.

Du Bai er hu quan shu : bu fen juan.

Jiaqing shi nian Wang Xiangneng xu shu ji ke shu shi.

Karls v. Plan zur Gründung eines Reichsbundes. Ursprung und erste Versuche bis zum Ausgange des Ulmer Tages (1547).

Mode of access: Internet.

Early Tudor poetry, 1485-1547,

At head of title: Studies in Tudor literature. First published in 1920.

New dimeric supramolecular structure of mixed (phthalocyaninato)(porphyrinato)-europium(III) sandwiches : preparation and spectroscopic characteristics

The mixed double-decker Eu\[Pc(15C5)4](TPP) (1) was obtained by base-catalysed tetramerisation of 4,5-dicyanobenzo-15-crown-5 using the half-sandwich complex Eu(TPP)(acac) (acac = acetylacetonate), generated in situ, as the template. For comparative studies, the mixed triple-decker complexes Eu2\[Pc(15C5)4](TPP)2 (2) and Eu2\[Pc(15C5)4]2(TPP) (3) were also synthesised by the raise-by-one-story method. These mixed ring sandwich complexes were characterised by various spectroscopic methods. Up to four one-electron oxidations and two one-electron reductions were revealed by cyclic voltammetry (CV) and differential pulse voltammetry (DPV). As shown by electronic absorption and infrared spectroscopy, supramolecular dimers (SM1 and SM3) were formed from the corresponding double-decker 1 and triple-decker 3 in the presence of potassium ions in MeOH/CHCl3.

Growth of boehmite nanofibers by assembling nanoparticles with surfactant micelles

It is known that boehmite (AlOOH) nanofibers formed in the presence of nonionic poly(ethylene oxide) (PEO) surfactant at 373 K. A novel approach is proposed in this study for the growth of the boehmite nanofibers: when fresh aluminum hydrate precipitate was added at regular interval to initial mixture of boehmite and PEO surfactant at 373 K, the nanofibers grow from 40 to 50 nm long to over 100 nm. It is believed that the surfactant micelles play an important role in the nanofiber growth: directing the assembly of aluminum hydrate particles through hydrogen bonding with the hydroxyls on the surface of aluminum hydrate particles. Meanwhile a gradual improvement in the crystallinity of the fibers during growth is observed and attributed to the Ostwald ripening process. This approach allows us to precisely control the size and morphology of boehmite nanofibers using soft chemical methods and could be useful for low temperature, aqueous syntheses of other oxide nanomaterials with tailorable structural specificity such as size, dimension and morphology.