Atomically Precise Fabrication 01 Atomically Precise Manufacturing Processes 02 Mechanosynthesis 03 Patterned ALE Path Phases 04 Numerically Controlled Molecular Epitaxy 05 Scanning Probe Diamondoid Mechanosynthesis 06 Limitations of Bottom-Up Assembly 07 Nucleic Acid Engineering 08 DNA as an Aid to Self-Assembly 09 Self-Assembly 10 Protein Bioengineering Overview 11 Synthetic Chemistry 12 A Pa...

Sining Yun,* Liang Wang, Chunyu Zhao, Yanxiang Wang, Tingli Ma* a. School of Materials & Mineral Resources, Xi’an University of Architecture and Technology, Xi’an 710055, China. E-mail: [email protected]; Fax: +86-29-85535724; Tel: +86-29-82202022 b. State Key laboratory of Fine Chemicals, School of Chemical Engineering, Dalian University of Technology, Dalian, 116024, China. E-mail: ti...

Atomically Precise Fabrication 01 Atomically Precise Manufacturing Processes 02 Mechanosynthesis 03 Patterned ALE Path Phases 04 Numerically Controlled Molecular Epitaxy 05 Scanning Probe Diamondoid Mechanosynthesis 06 Limitations of Bottom-Up Assembly 07 Nucleic Acid Engineering 08 DNA as an Aid to Self-Assembly 09 Self-Assembly 10 Protein Bioengineering Overview 11 Synthetic Chemistry 12 A Pa...

The natural convection flow over a surface embedded in saturated porous media is encountered in many engineering problems such as the design of pebble-bed nuclear reactors, ceramic processing, crude oil drilling, geothermal energy conversion, use of fibrous material in the thermal insulation of buildings, catalytic reactors and compact heat exchangers, heat transfer from storage of agricultural...

Research in bone tissue engineering is focused on the development of alternatives to autologous bone grafts for bone reconstruction. Although multiple stem cell-based products and biomaterials are currently being investigated, comparative studies are rarely achieved to evaluate the most appropriate approach in this context. Here, we aimed to compare different clinically relevant bone tissue eng...