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Marketplace/Non-Ferrous Lead/Lead Battery Plates
Lead Battery Plates
Non-Ferrous Lead

Lead Battery Plates

Grade: RailsMedium Tier

Lead-acid battery plates, automotive or industrial

Market Price EstimateUpdated Daily
$1,950/ MT
+95 (5.1%)vs yesterday
Verified specifications & market data

Chemical Composition

Elemental breakdown by percentage weight.

Standard composition limits
Values represent maximum allowed percentage unless otherwise noted.

Physical Properties

Material form, density, and contamination specifications.

Post-consumer lead-acid battery plates; automotive batteries (vehicles, light-duty), industrial batteries (forklifts, backup power, uninterruptible power supplies); spent battery recycling stream; acid residue and separator material present; battery breaking/separation required; established lead recycling infrastructure; high-volume battery supply

Acceptable Inclusions
  • Lead 70-80% (battery plate specification)
  • Lead dioxide <15% (positive plate active material)
  • Lead sulfate <10% (degradation product)
  • Copper <2% (terminal residue)
  • Antimony <2% (battery alloy)
  • Sulfuric acid residue <2% (post-washing)
  • Plastics/organics <1% (separator residue)
  • Cadmium <0.01% (hazmat trace)
  • Arsenic <0.01% (hazmat trace)
Prohibited Materials
  • Intact batteries (must be broken; safety hazard)
  • Heavy acid saturation (>3%; corrosive)
  • Mixed ferrous/stainless contamination (>2%)
  • Cadmium >0.01% (HAZMAT exceeds limit)
  • Arsenic >0.01% (HAZMAT exceeds limit)
  • Unknown battery type or composition
  • Hazardous battery source (unknown chemistry)

Quality Assurance

Testing protocols, sampling methods, and acceptance criteria.

Sampling Protocol
frequencyStratified sampling by battery type; positive/negative plate ; degradation level variation; acid hazmat screening
maximumQuantity300+ plates per shipment
minimumQuantity30-100 samples or 1-2 tonnes
percentage12-15% of lot
stratificationSample across battery types; manufacturing eras; degradation states; lead content ; acid saturation variation; hazmat assessment
Acceptance Limits
acid Residue LimitSulfuric acid <2% confirmed post-washing; acid contamination ; processing feasible
all Criteria Must PassMaterial be separated battery plates; lead 70-80%; acid <2%; hazmat Cd/As <100 ppm each; processing protocol
arsenic LimitArsenic <100 ppm ; occupational hazmat
cadmium LimitCadmium <100 ppm ; occupational hazmat
copper LimitCopper <2% confirmed; alloying element acceptable
lead ContentLead 70-80% verified; purity within specification; highest-value lead commodity
lead Dioxide LimitLead dioxide <15% acceptable; active material content
plate IntegrityPlates structurally sound; separation quality good; processing viable
plate StatusConfirmed as separated battery plates; battery breaking ; positive/negative forms identified; rails grade
Weight Tolerance
measurementVerified by certified scale; weight accountability for high-value lead commodity; precision important
variance±5% from expected weight

Required Test Methods

Visual Plate Assessment

MANDATORY
Method 1
Purpose
  • confirm separated battery plates (not intact batteries)
  • positive/negative form identified
  • degradation assessed
Acceptance Criteria
  • Battery plates clearly separated
  • no intact battery cells
  • positive (brown PbO2) and negative (gray lead) identified
  • rails grade apparent
Procedure
  • 100% visual inspection
  • verify plate separation
  • identify positive/negative plates
  • confirm broken form
  • assess overall condition

Lead Content & Purity Verification

CRITICAL
Method 2
Purpose
  • verify lead 70-80%
  • confirm rails specification
  • establish primary value
Acceptance Criteria
  • Lead confirmed 70-80% per plate
  • purity within specification
  • rails grade standard
Procedure
  • XRF lead verification
  • identify lead plate composition
  • assess degradation/sulfate presence
  • document purity range

Sulfuric Acid Residue Assessment

CRITICALABSOLUTE
Method 3
Purpose
  • assess acid <2% post-washing
  • determine acid leakage/hazmat level
  • evaluate processing feasibility
Acceptance Criteria
  • Acid residue <2% confirmed
  • residual wetness minimal
  • acid neutralization adequate
Procedure
  • Acid detection (pH strips, visual wetness )
  • acid quantification
  • assess drainage quality
  • document acid content percentage

Lead Dioxide & Sulfate Evaluation

Method 4
Purpose
  • Assess lead dioxide <15%, lead sulfate <10%
  • confirm battery plate degradation profile
  • establish processing complexity
Acceptance Criteria
  • PbO2 <15% confirmed
  • PbSO4 <10% verified
  • battery degradation profile
Procedure
  • Visual color assessment (brown for PbO2)
  • X-ray diffraction if available
  • document active material percentage

Hazmat Trace Detection - Cadmium & Arsenic

CRITICALEXTREMEABSOLUTEMANDATORY
Method 5
Purpose
  • detect cadmium <100 ppm and arsenic <100 ppm
  • assess occupational hazmat risk
Acceptance Criteria
  • Cadmium <100 ppm
  • Arsenic <100 ppm
  • hazmat cleared
Procedure
  • ICP-AES ultra-sensitive analysis (ppm-level precision )
  • cadmium specific quantification
  • arsenic specific quantification
  • hazmat status

Copper/Antimony Assessment

Method 6
Purpose
  • Assess copper <2% and antimony <2%
  • confirm alloy composition
  • identify manufacturing era (older Sb-lead vs. modern Ca-lead)
Acceptance Criteria
  • Cu <2% and Sb <2% confirmed
  • alloy specification
Procedure
  • XRF alloy assessment
  • identify copper/antimony content
  • determine battery age/type
  • assess processing parameters needed

Contamination Check

Method 7
Purpose
  • Assess plastic/organic residue <1%, iron <1%
  • confirm material purity
  • establish processing protocol
Acceptance Criteria
  • Plastic/organic <1%
  • iron <1%
  • material clean for refining
Procedure
  • Visual contamination assessment
  • identify separator/case material residue
  • magnetic test for iron
  • assess cleaning adequacy
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