Fig. 1. Structural of L-DPPC (a), D-DPPC (b) and VB₂ (c)

Fig. 2. π-A isotherms of L-DPPC, D-DPPC and race-DPPC monolayers diffused at the interface between ultrapure water and VB₂ aqueous solution

Fig. 3. The elastic Modulus of L-DPPC, D-DPPC and race-DPPC monolayer on μL trapure water and VB₂ aqueous solution are 5, 15, 25 and 35 mN·m^-1

Fig. 4. The monolayer is at 13 mN·m^-1, (a), (b) represent SH Intensityand DCE of L-DPPC onpure water and VB2 aqueous solution; (c), (d) represent SH Intensityand DCE of E-DPPC onpure water and VB₂ aqueous solution; (e), (f) represent SH Intensityand DCE of L-DPPC onpure water and VB₂ aqueous solution

Fig. 5. The monolayer is at 13 mN·m^-1, (a), (b) represent L-DPPC microdomains on the surface of pure water and VB₂ aqueous solutions; (c), (d) represent D-DPPC microdomains on the surface of pure water and VB₂ aqueous solutions; (e), (f) represent race-DPPC microdomains on the surface of pure water and VB₂ aqueous solutions. The size of each image is 150 μm×50 μm

Fig. 6. L-DPPC monolayer film at the interface of 13~15 mN·m^-1 and VB₂ aqueous solution during the growth process (a—f) of clover. The size of each image is 150 μm×50 μm

Table 1. The phase transition points of L-DPPC, D-DPPC, racemic DPPC and the limiting monomolecular area of LC phase

Table 2. The monolayer is at 13 mN·m^-1, DCE Value of L-DPPC, D-DPPC and race-DPPC monolayers diffused at the interface between ultrapure water and VB₂ aqueous solution