The innovative nanotechnology uses non-biodegradable plastic grocery bags to make «carbon
nanotube membranes» — highly sophisticated and expensive materials with a variety of potential advanced applications including filtration, sensing, energy storage and a range of biomedical innovations.
And carbon
nanotube membranes come with other perks, Das added, including self - cleaning properties.
As a result, carbon
nanotube membranes have the potential to last longer and may be reusable.
Not exact matches
Carbon
nanotube (CNT)
membranes have a bright future in addressing the world's growing need to purify water from the sea, researchers say in a study published in the journal Desalination.
Membrane filtration is considered among the most promising and widely used processes for water treatment and desalination... Carbon
nanotubes (CNT) have shown great potential in water, wastewater treatment and desalination as they have many attractive key physicochemical properties with the ability to be functionalized to enhance their affinity and selectivity.»
Once these peptides find a bacterium, they nestle into its outer
membrane, then shape - shift themselves into
nanotubes, which act as spigots, draining the cell and killing it within minutes.
And physicist Olgica Bakajin of Hayward, Calif. — based Porifera, Inc., plans to use
membranes composed of carbon
nanotubes to separate CO2 from the other gases — using carbon to capture carbon.
Shnyrova et al. (p. 1433; see the Perspective by Holz) reconstituted dynamin - mediated
membrane scission on lipid
nanotubes and suggest a molecular model for dynamin activity that takes into consideration all known aspects of dynamin function.
The result could be useful for understanding the movement of water when squeezed inside tiny channels, for instance, in carbon
nanotubes or cell
membranes.
They used pieces of grocery plastic bags which were vaporized in a furnace to produce carbon layers that line the pores in the
membrane to make the tiny cylinders (the carbon
nanotubes).
Szempruch, a doctoral student in the biochemistry and molecular biology department, developed a 3 - D reconstruction of the
nanotubes budding at the flagellum
membrane.
The next step, Chen said, is to build biomimetic
membranes by incorporating natural
membrane proteins or other synthetic water channels such as carbon
nanotubes into these sheet matrices.
They used carbon
nanotube porins (CNTPs), a technology they developed earlier at LLNL, which uses carbon
nanotubes embedded in the lipid
membrane to mimic biological ion channel functionality.
Lawrence Livermore scientists are developing a flexible
membrane with sub-5 nanometer single - walled carbon
nanotube pores - a key component of protective, yet breathable fabrics.
The LLNL team fabricated flexible polymeric
membranes with aligned carbon
nanotube (CNT) channels as moisture conductive pores.