Four tailor-made flat composite membranes of poly vinylideneflouride) (PVDF) as a support and polydimethylsiloxane (PDMS) or cellulose acetate (CA) as coating layer, and a commercially available composite membrane (Solsep 030306) were used to remove hexane and free fatty acid (FFA) from crude soybean oil hexane mixture.
Furthermore, the utilisation of M13 phage as template for the Ni3B mineralisation could potentially serve as a viable alternative to create tailor-made boride composite materials by a biologically driven nano-assembly synthesis and structuring for the generation of thermoelectric devices and field effect transistors.
We think that the identified strong binding sequences described here could potentially serve for the utilisation of M13 phage as a viable alternative to other methods to create tailor-made boride composite materials or new catalytic surfaces by a biologically driven nano-assembly synthesis and structuring.
Motivated by the recent use of friction stirring in the manufacture of in-situ composites, a new additive manufacturing method for the design and manufacture of tailor-made functionally graded composites is presented.
These properties make them attractive materials for fabricating hybrid composites based on a polymer matrix with nanoparticle fillers [1], allowing tailor-made electrical and optical composite responses.
This tool is used to draw a map of the wale-wise versus course-wise modulus that can help to design a fabric leading to a composite with tailor-made properties.
A novel mechanism to generate auxetic behaviour at tailor-made values which may be implemented in composites manufacture using readily available materials is proposed.
In this paper, uniformly-dispersed nanoclay/epoxy composite samples, based on our tailor-made experiment setup were fabricated.
Metal Matrix Composites (MMCs) are materials that offer tailor-made property combinations required for wide range of engineering applications.
Overall, the observed variation in thermo-mechanical, swelling and diffusional properties of the composite cryogels may allow the design of tailor-made delivery and controlled release systems of polymeric ingredients such as bioactive proteins.
The current trend of coating techniques involves composite coatings, such as multilayer or multiphase, which are expected to have tailor-made properties for some specific applications.
