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You throw your battery away too soon!
Read on!

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Charging |
Discharging |
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2PbSO4 + 2H20
→ Pb + PbO2 + 2H2SO4 |
Pb + PbO2 + 2H2SO4
→ 2PbSO4 + 2H20 |
A battery tends to be
discharging for much longer periods of time than when it is being charged.
After all, a car sits for longer periods of time than when it is being
driven. Hence, lead sulfate is produced faster than it can be reverted into lead,
lead dioxide, and water (see equations above). When the lead sulfate is left sitting for long
periods of time, the initially spongy lead sulfate hardens and forms
crystals. Unlike the spongy lead sulfate, these crystals cannot be reverted
back to active material (lead and lead dioxide). More crystals on lead
plates mean less active material is left to be used for the battery's
chemical reaction. A battery is effectively dead when there is simply not
enough active material left to start a vehicle!
Lead sulfate crystallization causes more
than 3/4 of batteries to fail before their designed lifespan!!

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Spongy Sulfation |
Barrier Sulfation |
Crystallized
Sulfation |
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Spongy form.
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Can be converted back to lead, lead dioxide and water when the
battery is charged.
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Very low
internal impedance (usually < 8 mΩ).
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Covalent bonds form and
small crystals start to appear on lead plates.
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Increased internal impedance.
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May not
be able to crank a car.
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Large crystals with very
strong bonds form on the lead plates.
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Very little
surface area where chemical reactions can take place.
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Very high
internal impedance.
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Cannot crank
a car.
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Prevention of Premature Failure
The
Sulfarid Desulfator prevents lead sulfate
crystals from building up on your plates. This means more active material is
available, ensuring a longer lifespan and higher efficiency.
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