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Calcium hybrid · 1.2–2.0 kWh

Calcium Hybrid Deep Cycle Battery

Lead-calcium dual alloy grids with a silver–graphene conductive matrix. Two 12V models at 1.2 and 2.0 kWh.

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  • Home backup
  • Solar

Before you order

  • The source catalogue lists both models under the same part number, DB1.2-KCH. Confirm the correct part number for the 2.0 kWh unit before ordering.

Commercial terms

HS classification — 8507.20Harmonised System
Status: VerifiedOther lead-acid accumulators. The 6-digit subheading is international; the national extension is confirmed per destination at quotation.
Minimum order quantityNot stated in supplier catalogue
Status: PendingAsk with your destination port and we will confirm against the plant’s current run.
IncotermsQuoted per shipment
Status: PendingTell us the term you work on and we will quote to it.
Lead timeNot stated in supplier catalogue
Status: PendingDepends on quantity and current production. Confirmed with the quotation.
Warranty termsNot stated in supplier catalogue
Status: PendingTo be confirmed with the manufacturer before it is published here.

Specification

Calcium Hybrid Deep Cycle Battery range.Source: DÉCOR catalogue rev AUG-26, page 9.
ModelCapacityGrid (dual alloy)Container
DB1.2-KCH12V 1.2 kWhPb-CaPPCP
DB1.2-KCH12V 2.0 kWhPb-CaPPCP
Charge characteristics at 27 °C. Battery to be recharged in CV mode only.Source: DÉCOR catalogue rev AUG-26, page 5.
Parameter12V24V48V
Charging cut-off / bulk voltage14.5 V29.0 V58.0 V
Float voltage13.7 V27.4 V54.8 V
Under-voltage warning / low-voltage alarm10.8 V22.0 V44.0 V
Battery low breaking / cut-off voltage10.5 V21.6 V43.2 V

Application notes

  • Ag-C graphene conductive matrix reduces internal resistance and improves charge acceptance.
  • Lead-calcium dual alloy grids with anti-corrosive properties for high-temperature stability.
  • Nano-porous lead dioxide active material for faster ion diffusion.
  • Electrolyte additives stabilise ionic conductivity and suppress sulfation on deep discharge.
  • Heat-dissipating geometry maintains uniform temperature gradients.
  • Optimised grid conductivity reduces recharge time by up to 25%.