Control over the orientational order of liquid crystals (LCs) is critical to optical switching and display applications. Porous polymer networks have been used to influence the orientation of embedded chiral liquid crystals1, yielding for example reflective displays. Here we show that inorganic films with a porous structure engineered on the submicrometre scale by glancing-angle deposition2,3 can be used to control the orientation of LCs impregnated into the voids. The inorganic material contains helical columns that orient rod-like nematic LCs into a phase similar to a chiral nematic1,4 but with direct control of the local molecular arrangement (for example, the helical pitch) imposed by the inorganic microstructure. We also show that reac...
International audienceThe cholesteric liquid crystalline structure is omnipresent in living matter a...
In many colloidal systems, an orientationally ordered nematic (N) phase emerges fromthe isotropic (I...
Smart materials adapt to, rather than resist, changes to their environment. In Nature, a variety of ...
Control over the orientational order of liquid crystals (LCs) is critical to optical switching and d...
Using the glancing angle deposition (GLAD) technique, we have fabricated porous, chiral thin films w...
Glancing angle deposition is used to create porous liquid crystal alignment layers with high aspect-...
Control over molecular motion is facilitated in materials with highly ordered nanoscale structures. ...
Monolithically ordered liquid crystal polymer networks are formed by the photoinitiated polymerizati...
\u3cp\u3eWhile self-assembled molecular building blocks could lead to many next-generation functiona...
\u3cp\u3eGlancing angle deposition is used to create porous liquid crystal alignment layers with hig...
Lyotropic chiral nematic liquid crystalline dispersions are a unique state of matter that can be exp...
Combining liquid crystals (LCs) with well-designed anchoring patterns at the substrates offers treme...
A state of matter in which molecules show a long-range orientational order and no positional order i...
Developing shape-shifting materials requires combining the flexibility needed by shape-shifting prop...
\u3cp\u3eAn overview is given of the methods for preparation of birefringent films with patterned op...
International audienceThe cholesteric liquid crystalline structure is omnipresent in living matter a...
In many colloidal systems, an orientationally ordered nematic (N) phase emerges fromthe isotropic (I...
Smart materials adapt to, rather than resist, changes to their environment. In Nature, a variety of ...
Control over the orientational order of liquid crystals (LCs) is critical to optical switching and d...
Using the glancing angle deposition (GLAD) technique, we have fabricated porous, chiral thin films w...
Glancing angle deposition is used to create porous liquid crystal alignment layers with high aspect-...
Control over molecular motion is facilitated in materials with highly ordered nanoscale structures. ...
Monolithically ordered liquid crystal polymer networks are formed by the photoinitiated polymerizati...
\u3cp\u3eWhile self-assembled molecular building blocks could lead to many next-generation functiona...
\u3cp\u3eGlancing angle deposition is used to create porous liquid crystal alignment layers with hig...
Lyotropic chiral nematic liquid crystalline dispersions are a unique state of matter that can be exp...
Combining liquid crystals (LCs) with well-designed anchoring patterns at the substrates offers treme...
A state of matter in which molecules show a long-range orientational order and no positional order i...
Developing shape-shifting materials requires combining the flexibility needed by shape-shifting prop...
\u3cp\u3eAn overview is given of the methods for preparation of birefringent films with patterned op...
International audienceThe cholesteric liquid crystalline structure is omnipresent in living matter a...
In many colloidal systems, an orientationally ordered nematic (N) phase emerges fromthe isotropic (I...
Smart materials adapt to, rather than resist, changes to their environment. In Nature, a variety of ...