Let's get it straight without insult.
Water has a higher heat capacity (the ability to absorb and tranfer heat) than either ethylene or propylene gylcol. Thus mixtures of coolant and water have lower heat capacity than straight water.
Water has a higher freezing point than either ethylene or propylene gylcol. Thus mixtures of coolant have a lower freezing point than straight water.
Water has lower boiling point than either ethylene or propylene gylcol. Thus coolant mixtures have a higher boiling point than straight water.
Coolant mixtures sacrifice heat transfer ability for better freeze AND boil over protection. The lower heat transfer ability of coolant mixtures is compensated for by use of larger capacity radiators.
Straight water is OK in mild climate areas, but these same areas are the ones were boil over is a problem. So, In addition to the corrosion protection, coolant mixtures are generally better for all climates and situations.
Water has a higher heat capacity (the ability to absorb and tranfer heat) than either ethylene or propylene gylcol. Thus mixtures of coolant and water have lower heat capacity than straight water.
Water has a higher freezing point than either ethylene or propylene gylcol. Thus mixtures of coolant have a lower freezing point than straight water.
Water has lower boiling point than either ethylene or propylene gylcol. Thus coolant mixtures have a higher boiling point than straight water.
Coolant mixtures sacrifice heat transfer ability for better freeze AND boil over protection. The lower heat transfer ability of coolant mixtures is compensated for by use of larger capacity radiators.
Straight water is OK in mild climate areas, but these same areas are the ones were boil over is a problem. So, In addition to the corrosion protection, coolant mixtures are generally better for all climates and situations.
