324627 The two forms of D-glucopyranose are called

324628 Number of chiral carbon atoms in $\beta -\mathrm{D}(+)$-glucose is

324629 Optical rotation of a freshly prepared solution of $\alpha$-D-glucopyranose is $+{111}^{\circ }$ while that of $\beta$ - D-glucopyranose is $+{19.2}^{\circ }$. In solution, an equilibrium mixture of these two anomers is ${52.5}^{\circ }$. The percentage of $\alpha$-form in the equilibrium mixture is

324630 The beta and alpha glucose have different specific rotations. When either is dissolved in water, their rotation changes until the same fixed value results. This is called

324627 The two forms of D-glucopyranose are called

324628 Number of chiral carbon atoms in $\beta -\mathrm{D}(+)$-glucose is

324629 Optical rotation of a freshly prepared solution of $\alpha$-D-glucopyranose is $+{111}^{\circ }$ while that of $\beta$ - D-glucopyranose is $+{19.2}^{\circ }$. In solution, an equilibrium mixture of these two anomers is ${52.5}^{\circ }$. The percentage of $\alpha$-form in the equilibrium mixture is

324630 The beta and alpha glucose have different specific rotations. When either is dissolved in water, their rotation changes until the same fixed value results. This is called

324627 The two forms of D-glucopyranose are called

324628 Number of chiral carbon atoms in $\beta -\mathrm{D}(+)$-glucose is

324629 Optical rotation of a freshly prepared solution of $\alpha$-D-glucopyranose is $+{111}^{\circ }$ while that of $\beta$ - D-glucopyranose is $+{19.2}^{\circ }$. In solution, an equilibrium mixture of these two anomers is ${52.5}^{\circ }$. The percentage of $\alpha$-form in the equilibrium mixture is

324630 The beta and alpha glucose have different specific rotations. When either is dissolved in water, their rotation changes until the same fixed value results. This is called

324627 The two forms of D-glucopyranose are called

324628 Number of chiral carbon atoms in $\beta -\mathrm{D}(+)$-glucose is

324629 Optical rotation of a freshly prepared solution of $\alpha$-D-glucopyranose is $+{111}^{\circ }$ while that of $\beta$ - D-glucopyranose is $+{19.2}^{\circ }$. In solution, an equilibrium mixture of these two anomers is ${52.5}^{\circ }$. The percentage of $\alpha$-form in the equilibrium mixture is

324630 The beta and alpha glucose have different specific rotations. When either is dissolved in water, their rotation changes until the same fixed value results. This is called