Mathematical and Materials Science

AI Thread Summary
The discussion centers on the future applications of materials science and crystallography, particularly in relation to crystal growth. Key points include the importance of narrowing down the focus to specific applications such as clean energy, biotechnology, electronics, or transportation, as well as identifying classes of materials like polymers, ceramics, or semiconductors. The Community Grid's involvement in modeling materials for green energy is highlighted as a relevant resource. Research areas of interest include the design of amorphous metals, which require a deep understanding of crystallography to avoid crystal growth, and the epitaxial growth of semiconductors, crucial for optoelectronics and nanostructure development. The potential integration of III-V materials with silicon in microelectronics is also mentioned as a future consideration. For further exploration, participants are encouraged to check university materials science and solid-state physics departments for ongoing research projects.
stanford1463
Messages
44
Reaction score
0
Ok I feel this is the best place to place this subject. Well, I have been interested in materials science and crystallography lately, especially the future applications of this. What are some future materials we could make from studying crystal growth? How could we go about accomplishing this? What are the steps involved in mathematically modeling crystal growth, and then developing a high-tech material based on that? Any references, help, websites, is appreciated! Thanks!
 
Engineering news on Phys.org
Hi, not really my area but i know the Community Grid are involved in modelling materials for the Green Energy Project. This may be of some interest.


http://cleanenergy.harvard.edu/
 
alright thanks, any others?
Bumpppppppppp
 
I think your question is too broad...how about narrowing it down a bit such as

what applications? clean energy, biotech, electronics, transportation...?

what classes of materials? polymers, ceramics, semiconductors etc...?

you could search through different universities' websites for their material science departments, or their solid state physics departments, or chemistry departments. Usually they will list the research projects they are working on and you can see which involve developing new materials and for what applications.
 
A popular research area is the design of amorphous metals, where you want to avoid crystal growth (and this requires a deep understanding of crystal formation and crystallography). Amorphous metals have a relatively high strength because of their lack of well-defined slip systems.
 
Epitaxial growth of semiconductors is probably the largest application of crystal growth currently. This is especially true in optoelectronics (semiconductor laser, high efficiency solar cells, etc.). Nanostructure growth also encompasses this area. There's also been talk for a few years now of incorporating III-V's with Si for the microelectronics industry (we'll see about that one though =P ).
 
Hello! I've been brainstorming on how to prevent a lot of ferrofluid droplets that are in the same container. This is for an art idea that I have (I absolutely love it when science and art come together) where I want it to look like a murmuration of starlings. Here's a link of what they look like: How could I make this happen? The only way I can think of to achieve the desired effect is to have varying droplet sizes of ferrofluid suspended in a clear viscous liquid. Im hoping for the...
Hello everyone! I am curious to learn how laboratories handle in-house chip manufacturing using soft lithography for microfluidics research. In the lab where I worked, only the mask for lithography was made by an external company, whereas the mold and chip fabrication were carried out by us. The process of making PDMS chips required around 30 min–1 h of manual work between prepolymer casting, punching/cutting, and plasma bonding. However, the total time required to make them was around 4...
Back
Top