CHECK OUR NEW LITERATURE WEBSITE

Tew Group has started to post recent literature to their new website. You can click the link below:




Tuesday, July 29, 2008

Biomaterials Volume 29, Issue 28, October 2008

Biodegradable injectable polyurethanes: Synthesis and evaluation for orthopaedic applications

Raju Adhikaria, Corresponding Author Contact Information, E-mail The Corresponding Author, Pathiraja A. Gunatillakea, Ian Griffithsa, Lisa Tataia, Malsha Wickramaratnab, Shadi Houshyara, Tim Moorea, Roshan T.M. Mayadunneb, John Fieldc, Margaret McGeed and Tania Carboned

--------------------------------------------------------------------------


Synthesis and characterization of biodegradable elastomeric polyurethane scaffolds fabricated by the inkjet technique

Changhong Zhanga, Xuejun Wena, Naren R. Vyavaharea and Thomas BolandCorresponding Author Contact Information, a, E-mail The Corresponding Author


Fig. 7. Photograph of the patterns printed on glass slides by inkjet printing technique. A 50% (V/V) acetic acid water solution in HP 21 cartridge was printed out by one pass on MP530B solution coated glass slide. Patterns immediately formed in 1 s after printing. (A) Separate letters printed on the stand glass slides; (B) contacted O-rings printed on the standard glass slides. All the patterns were computer designed by Microsoft Office software. The letters fixed on the right side of the standard glass slides were used as size control; (C) schematic diagram shows that MP530B in the solution was neutralized and became soluble with pH higher than 8.7, this reaction is revisable with solution pH value adjusted lower than 8.7. This reaction was utilized for the scaffold fabrication by inkjet printer.

Fig. 8. SEM images of the PU scaffold showing, (A) and (B) primary structures at different magnifications show the porous structure with pore size ranging from 10 μm to 30 μm. (C) Secondary structure shows the porous structure with uniform and inter-connective pores, the average size of pores is less than 1 μm. (A) Magnification 400×, (B) magnification 2500×, (C) magnification 20,000×.

Monday, July 7, 2008

Nanoletters, Vol. 8, Issue 6.

From Nanorings to Nanodots by Patterning with Block Copolymers

Soojin Park, Jia-Yu Wang, Bokyung Kim, and Thomas P. Russell.

pp 1667 – 1672.

Chem Rev (vol 108, iss 6, June 2008)

Square-Planar Pd(II), Pt(II), and Au(III) Terpyridine Complexes: Their Syntheses, Physical Properties, Supramolecular Constructs, and Biomedical Activities
Ibrahim Eryazici, Charles N. Moorefield, and George R. Newkome
pp 1834 - 1895

JACS (vol 130, iss 22-25, June 4, 11, 18, 25, 2008)

Molecular Recognition Based on Low-Affinity Polyvalent Interactions: Selective Binding of a Carboxylated Polymer to Fibronectin Fibrils of Live Fibroblast Cells
Reagan L. McRae, Ronnie L. Phillips, Ik-Bum Kim, Uwe H. F. Bunz, and Christoph J. Fahrni
pp 7851 - 7853 (iss 25)



Double-Stranded Helical Polymers Consisting of Complementary Homopolymers
Takeshi Maeda, Yoshio Furusho, Shin-Ichiro Sakurai, Jiro Kumaki, Kento Okoshi, and Eiji Yashima
pp 7938 - 7945 (iss 25)



Functional Mimicry of Carboxypeptidase A by a Combination of Transition State Stabilization and a Defined Orientation of Catalytic Moieties in Molecularly Imprinted Polymers
Jun-qiu Liu and Günter Wulff
pp 8044 - 8054 (iss 25)

Positioning Lipid Membrane Domains in Giant Vesicles by Micro-organization of Aqueous Cytoplasm Mimic
Ann-Sofie Cans, Meghan Andes-Koback, and Christine D. Keating
pp 7400 - 7406 (iss 23)



Electrochemical Recognition of Synthetic Heparin Mimetic at Liquid/Liquid Microinterfaces
Patrick J. Rodgers, Ping Jing, Yushin Kim, and Shigeru Amemiya
pp 7436 - 7442 (iss 23)


Spontaneous Generation of Amphiphilic Block Copolymer Micelles with Multiple Morphologies through Interfacial Instabilities

Jintao Zhu and Ryan C. Hayward
pp 7496 - 7502 (iss 23)



Vesicles and Organogels from Foldamers: A Solvent-Modulated Self-Assembling Process
Wei Cai, Gui-Tao Wang, Yun-Xiang Xu, Xi-Kui Jiang, and Zhan-Ting Li
pp 6936 - 6937 (iss 22)

Tuesday, July 1, 2008

Biomaterials Volume 29, Issues 24-25, August-September 2008, Pages 3400-3407

Bone substitute: Transforming β-tricalcium phosphate porous scaffolds into monetiteFig. 2. DCP crystals seen at macropore surfaces. These photos show that large changes of crystal size and shape are found within the same sample: (a) a ruptured surface shows the size and shape of DCP crystals in two different macropores (left and right side of the photo); (b) size and shape of DCP crystals within a macropore.

Biomaterials Volume 29, Issues 24-25, August-September 2008, Pages 3393-3399

Conducting polymers for neural interfaces: Challenges in developing an effective long-term implant
Rylie A. Greena, Nigel H. Lovella, Gordon G. Wallaceb and Laura A. Poole-Warren