Fructose has the same molecular formula as glucose, which is C6H12O6.

Hydrogen peroxide has the molecular formula H2O2.

The molecular formula of water is H2O.

Ammonia has a trigonal pyramidal geometry due to the presence of a lone pair on nitrogen.

BF3 has three bonding pairs and no lone pairs, resulting in a trigonal planar geometry.

BF3 has a trigonal planar geometry due to the three bonding pairs and no lone pairs on the central atom.

According to VSEPR theory, CH4 has four bonding pairs and no lone pairs, resulting in a tetrahedral geometry.

CH4 has a tetrahedral geometry due to four bonding pairs around the central carbon atom.

Methane has a tetrahedral molecular geometry due to sp3 hybridization of the carbon atom.

NH3 has three bonding pairs and one lone pair, resulting in a trigonal pyramidal geometry.

SF4 has four bonding pairs and one lone pair, resulting in a seesaw molecular geometry.

SO2 has two bonding pairs and one lone pair, resulting in a bent molecular geometry.

The electronic configuration corresponds to C2, which has a tetrahedral geometry due to sp3 hybridization.

The correct configuration for F2 is (σ1s)²(σ*1s)²(σ2s)²(σ*2s)²(σ2p)²(π2p)⁴(π*2p)².

The correct configuration for O2 is (σ1s)²(σ*1s)²(σ2s)²(σ*2s)²(σ2p)²(π2p)²(π*2p)¹.

The correct configuration for F2 is (σ1s)²(σ*1s)²(σ2s)²(σ*2s)²(σ2p)²(π2p)⁴(π*2p)².

The correct configuration for O2 is (σ1s)²(σ*1s)²(σ2s)²(σ*2s)²(σ2p)²(π2p)²(π*2p)¹.

AX3E indicates three bonding pairs and one lone pair, resulting in a trigonal pyramidal shape.

BF3 has three bonding pairs and no lone pairs, resulting in a trigonal planar shape.

NH3 has three bonding pairs and one lone pair, resulting in a trigonal pyramidal shape.

The molecular weight of water is calculated as (2*1) + (16) = 18 g/mol.

The conversion of benzene to phenol is known as hydroxylation, typically involving the addition of a hydroxyl group (-OH) to the aromatic ring.

The Nernst equation is used to determine the cell potential under non-standard conditions.

Normality (N) = equivalents of solute / liters of solution. H2SO4 provides 2 equivalents, so N = 2 moles / 1 L = 2 N.

Normality (N) = equivalents of solute / liters of solution. H2SO4 provides 2 equivalents, so 2 moles × 2 = 4 N.

Normality (N) = equivalents of solute / liters of solution. H2SO4 has 2 equivalents per mole, so 3 moles = 6 equivalents. Normality = 6 equivalents / 2 L = 3 N.

Normality (N) = number of equivalents / liters of solution. H2SO4 has 2 equivalents per mole, so 4 moles = 8 equivalents. Normality = 8 equivalents / 2 L = 4 N.

Normality (N) = equivalents of solute / liters of solution. H2SO4 has 2 equivalents, so 4 moles = 8 equivalents. N = 8 eq / 2 L = 4 N.

Normality (N) = Molarity (M) x number of equivalents. H2SO4 has 2 acidic protons, so 1 M x 2 = 2 N.

Number of atoms = moles x Avogadro's number = 2 moles x 6.022 x 10^23 atoms/mole = 1.2044 x 10^24 atoms.