01 EV batteries Complete packs, modules and cells may require different discharge, demontare, isolation and feeding boundaries. Document how the material reaches the project before defining downstream equipment.
02 Energy-storage batteries Module construction, chimie, state of charge and expected variation should be recorded. Large stationary systems may also affect receiving, staging and safe-handling plans.
03 Consumer and 3C cells Small cells and mixed formats can require different feeding, containment and sorting choices from automotive modules. Representative samples or photos improve the first review.
04 Battery production scrap Electrode, cell and assembly scrap may enter at different stages of the process. Umiditate, binder, foil composition and contamination should be described rather than assumed.
01 Core module Controlled size reduction Feeding and shredding are selected for the approved battery format and pre-treatment status. The proposal should define containment, access, interlocks and the material size entering the next stage.
02 Project-dependent Material conditioning Thermal or other conditioning is considered only when material characteristics and downstream goals require it. Temperature, atmosphere and emissions controls belong in the approved technical scope.
03 Optional separation Density-based separation Density or airflow separation may support the removal of light and heavy fractions after the material has been prepared. Suitability depends on particle condition and target outputs.
04 Particle control Screening and de-powdering Rotary or vibrating screening can classify material and collect powder-bearing fractions. Screen selection and staging require sample data and acceptance criteria.
05 Ferrous removal Separare magnetică Magnetic equipment may remove ferrous-bearing material at a suitable point in the line. Position and strength are configured around the actual material flow.
06 Quality control Final screening Final screening may improve fraction consistency before collection or downstream handover. Mesh, loading and recirculation are confirmed during engineering review.
01 Feedstock evidence Chemistry documents, representative photos, sample analysis, physical format, condition and variation.
02 Upstream responsibility Who discharges, dismantles, isolates, stores and transfers the battery material before feeding.
03 Output definition Required fractions, downstream buyer or process, sampling method and acceptance criteria.
04 Site integration Ţară, available area, electrical standard, utilitati, access, storage and local project requirements.
01 Black-mass-bearing powder Define moisture, particle size, sampling and downstream acceptance before treating this as a final product.
02 Copper-bearing fraction Collection and quality targets depend on preparation, separation stages and the agreed handover boundary.
03 Aluminum-bearing fraction Foil and mixed aluminum-bearing material should be evaluated against the actual feedstock and buyer specification.
O Confirmed facts Approved material data and project requirements are shown as the basis of the proposal.
B Project-dependent items Configuration choices remain conditional until the feedstock and site have been reviewed.
C Human approval gates Commercial terms, final performance and compliance statements require authorized review.
D Version control The proposal should identify the approved configuration version, assumptions and open questions.
01Do not combine rowsEach row is a different system boundary; power from one cannot be paired with the footprint of another.
02Confirm the chemistryNMC, LFP, LCO and mixed streams change preparation, risk controls and output routing.
03Define acceptanceMeasured recovery and quality require stable-run evidence, agreed sampling and receiver criteria.