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Sugar Solubility Water

Reference data and engineering information about sugar solubility water for miscellaneous applications.

sugarsolubilitywater

Overview

Engineering reference data for Sugar Solubility Water in miscellaneous.

Key Formulas

Unit Conversion

y=xky = x \cdot k

Multiply by conversion factor.

Linear Interpolation

y=y1+(xx1)(y2y1)x2x1y = y_1 + \frac{(x - x_1)(y_2 - y_1)}{x_2 - x_1}

Estimate between two known points.

Percentage

p=partwhole×100%p = \frac{\text{part}}{\text{whole}} \times 100\%

Part as fraction of whole.

Variables

SymbolDescriptionUnit
xxInput value
yyOutput value
kkConversion factor

Solubility Relationship

The relationship between sucrose concentration and temperature can be expressed as: Solubility (% w/w)=Mass of sucrose dissolvedTotal mass of solution×100\text{Solubility (\% w/w)} = \frac{\text{Mass of sucrose dissolved}}{\text{Total mass of solution}} \times 100

For engineering calculations involving dissolving sugar in water: msucrose=mwater×C100Cm_{\text{sucrose}} = m_{\text{water}} \times \frac{C}{100 - C} where CC is the desired sucrose concentration in percent weight.

Solution Properties

The specific gravity (SG) of sugar solutions increases with concentration. For practical engineering estimates: SG1+0.004×CSG \approx 1 + 0.004 \times C where CC is the sucrose concentration in percent weight (for concentrations < 80%).

Mass fraction ww relates to weight percent as: w=C100w = \frac{C}{100}

Volume fraction of sucrose in solution: ϕsucrose=w/ρsucrose(w/ρsucrose)+((1w)/ρwater)\phi_{\text{sucrose}} = \frac{w / \rho_{\text{sucrose}}}{(w / \rho_{\text{sucrose}}) + ((1 - w) / \rho_{\text{water}})} where ρsucrose1.587 g/cm3\rho_{\text{sucrose}} \approx 1.587 \text{ g/cm}^3 and ρwater1.000 g/cm3\rho_{\text{water}} \approx 1.000 \text{ g/cm}^3.

For saturated solutions, the maximum solubility follows an approximately exponential relationship with temperature.

References