Pune · Western India · Platform under development

Recovering value.
Powering circularity.

Aadhya Ionix Private Limited is developing an industrial lithium-ion battery recycling platform designed to connect responsible feedstock management, mechanical resource recovery and the future regeneration of advanced battery materials.

Current focusPhase 1 planning, validation and industrial readinessTargeted development pathway toward April 2027, subject to site, approvals, financing, trials and final engineering.
Illustrative lithium-ion cells with black mass, copper and aluminium material fractions
Illustrative material pathway · not an operating-facility photograph
CHEMISTRY-AWARE SEGREGATIONSAFE PRE-PROCESSINGMECHANICAL RESOURCE RECOVERYTRACEABLE OUTPUTSADVANCED MATERIALS ROADMAP

About Aadhya Ionix

Building a responsible battery-materials platform for Western India.

Aadhya Ionix Private Limited is a Pune-based circular-materials company developing a stage-gated lithium-ion battery recycling platform. Our direction combines chemistry-aware feedstock management, safe mechanical resource recovery and a future pathway toward progressively validated advanced-material recovery.

The company is being developed around the practical requirements that determine industrial success: reliable feedstock, safe handling, chemistry segregation, process control, product quality, regulatory readiness and downstream buyer acceptance.

Our near-term focus is the planned Phase 1 mechanical platform. Phase 2 remains a research, patenting and scale-up pathway for lower-impact hydrometallurgical recovery and cathode regeneration after laboratory, pilot and demonstration validation.

01

Vision

Enable valuable battery materials to re-enter productive value chains through safer, traceable and technically disciplined recovery.

02

Mission

Develop a chemistry-aware industrial platform linking feedstock owners, responsible processing and qualified material users.

03

Approach

Scale only after evidence: validate safety, mass balance, product quality, buyer acceptance, economics and compliance at each gate.

Leadership

Founder-led, functionally accountable.

The directors jointly guide Aadhya Ionix’s commercial, financial, operational and process-development priorities.

CO-FOUNDER & DIRECTOR

Shubhankar Kapse

Commercial Strategy, Feedstock Ecosystem & Finance

Leads feedstock partnerships, downstream market development, strategic collaborations, financial planning and the company’s phased industrialisation strategy.

CO-FOUNDER & DIRECTOR

Akash Nimbalkar

Mechanical Operations & Process Development

Leads mechanical operations planning, process development, feedstock specifications, quality-control systems, end-product market coordination and workforce management.

Conceptual view of Pune's automotive, battery, research and logistics ecosystem
Illustrative ecosystem view · not an Aadhya Ionix facility photograph

Strategic location

Pune sits close to the battery value chain.

The Pune–Maharashtra industrial belt combines automotive and component manufacturing, electric-mobility activity, engineering talent, academic and research institutions, industrial logistics and access to Western India’s major markets.

Industrial ecosystemProximity to automotive, electronics and manufacturing clusters.
Feedstock connectivityAccess to potential OEM, fleet, ESS, industrial and aggregation networks.
Technical talentEngineering, analytical, process-development and EHS capabilities.
Market accessRoad connectivity across Maharashtra and the Western India corridor.

What enters the platform

Feedstock must be understood before it is processed.

Battery form, history, state of charge, damage and chemistry influence safety, processing behaviour and recovered-material value. Acceptance is therefore intended to begin with documentation, inspection and controlled classification.

Illustrative controlled inspection and segregation of lithium-ion battery packs, modules and cells
Illustrative receiving and inspection workflow
01

Manufacturing scrap

Cells, modules and production residues generated during battery or component manufacturing, subject to documentation and qualification.

02

End-of-life mobility batteries

Eligible two-wheeler, three-wheeler, passenger, commercial and fleet battery streams routed through appropriate channels.

03

Stationary and industrial systems

Energy-storage, backup-power and industrial lithium-ion systems assessed for chemistry, condition and safe handling.

04

Portable battery streams

Eligible cells and packs from electronics and specialised applications, with controlled segregation and contamination checks.

Chemistry discipline

Different batteries are not one commodity.

NMC, NCA, LCO, LFP and mixed or unidentified streams can carry materially different processing requirements and economics. The planned platform prioritises chemistry identification, compatible batching and buyer-specific quality controls.

NMCNickel manganese cobaltNCANickel cobalt aluminiumLCOLithium cobalt oxideLFPLithium iron phosphateMIXEDSeparate validation required

Phase 1 · Planned industrial platform

Mechanical recycling, from controlled receipt to verified dispatch.

The proposed Phase 1 architecture uses a 1 tonne/hour nameplate planning basis. This is not current operating capacity and remains subject to trials, selected equipment, site, approvals, financing and final engineering.

Conceptual enclosed mechanical battery recycling line with separated material fractions
Conceptual process architecture · not an Aadhya Ionix operating plant
01

Receive & document

Source records, transport documents, ownership, weight, pack details and available chemistry information.

02

Inspect & classify

Visual condition, damage, leakage, thermal indicators, form factor and provisional chemistry classification.

03

Quarantine & make safe

Controlled isolation, monitoring, discharge strategy and routing based on the condition of each incoming lot.

04

Dismantle

Removal of external structures, pack housings, cables, electronics and accessible metal components.

05

Size reduction

Controlled shredding or crushing within an engineered system designed around dust, fire and exposure risks.

06

Screen & separate

Physical separation of fine active-material fractions from copper, aluminium, ferrous and polymer-rich streams.

07

Sample & verify

Representative sampling, batch identification, contamination checks and alignment with agreed buyer specifications.

08

Pack & dispatch

Suitable packaging, labelling, batch records, inventory controls and documented movement to qualified recipients.

PLANNED CONTROL LAYERSFire and thermal riskDust and exposureMass balanceBatch traceabilityQuality releaseResidue routing

Intended Phase 1 outputs

Separated fractions prepared for qualified downstream routes.

Commercial classification, recovery, purity and buyer acceptance will be determined through representative trials and agreed specifications. The outputs below describe intended categories, not guaranteed product performance.

Illustrative controlled examination of black mass, copper and aluminium samples
QUALITY BEFORE CLAIMS

Materials must be sampled, analysed and accepted.

Visual appearance does not establish chemistry, purity or commercial grade. Planned release controls include representative sampling, analytical verification, batch identity and buyer-specific acceptance criteria.

Illustrative development image · not a photograph of Aadhya Ionix operations
CONDUCTOR

Copper fraction

Recovered conductor material requiring control of coatings, fines, moisture and cross-contamination.

STRUCTURE & FOIL

Aluminium fraction

Recovered aluminium-rich material from housings, structural parts and electrode-related fractions.

STRUCTURE

Ferrous fraction

Steel and magnetic material separated for suitable downstream metal-recovery channels.

NON-METALLIC

Polymer-rich fraction

Separated plastics and non-metallic material requiring characterisation and an approved downstream route.

Phase 2 · Advanced materials roadmap

From recovered black mass toward regenerated material value.

Phase 2 remains a research, patenting, validation and industrial scale-up pathway. It is not represented as licensed, commissioned, proven or commercially available.

GATE 01

Feed and analytical baseline

Characterise chemistry, particle distribution, impurities, variability and representative mass balance.

Decision: is the feed reproducible enough for process development?
GATE 02

Laboratory validation

Evaluate organic or mild-acid leaching, separation, impurity management, residue behaviour and cathode-regeneration routes.

Decision: can target materials meet defined technical criteria?
GATE 03

Pilot integration

Test repeatability, reagent and water strategy, process control, EHS requirements and product qualification across larger batches.

Decision: is the process safe, repeatable and commercially testable?
GATE 04

Demonstration scale

Validate integrated equipment, continuous operation, utility demand, residue treatment, quality consistency and customer trials.

Decision: is there sufficient evidence for commercial engineering?
Public disclosure boundary

Process recipes, unpublished experimental data, prospective intellectual property, detailed economics, supplier identities and customer-specific requirements are reserved for controlled technical or commercial discussions.

Where we create value

A platform designed around the needs of the full ecosystem.

Responsible routes for complex battery assets.

  • Defined acceptance and documentation requirements
  • Condition and chemistry-based routing
  • Planned chain-of-custody and batch records
  • Transparent commercial qualification before commitment
Discuss feedstock requirements →

Material streams developed around buyer specifications.

  • Representative sampling and batch identification
  • Chemistry and impurity information where validated
  • Specification alignment before commercial dispatch
  • Qualification trials for recurring offtake relationships
Discuss product qualification →

Stage-gated collaboration for safe industrialisation.

  • Analytical testing and mass-balance validation
  • Process, equipment and EHS engineering
  • Laboratory, pilot and demonstration development
  • Quality systems and product-performance evaluation
Explore technical collaboration →

Infrastructure backed by evidence, not unsupported claims.

  • Clear separation of planned and validated capability
  • Milestone-led technical and commercial de-risking
  • Western India circular-materials opportunity
  • Long-term progression toward higher-value recovery
Begin a strategic discussion →

Responsible industrial development

Safety, traceability and quality are infrastructure.

Safe handling

Incoming inspection, segregation, quarantine, thermal-risk controls, trained handling and documented emergency response are intended to shape operations from the outset.

Compliance pathway

Applicable corporate, factory, environmental, waste, transport, fire, labour and local approvals must be mapped and secured before the relevant activity begins.

Material traceability

Weight records, source documentation, lot identity, process batch records, inventory reconciliation and dispatch documentation are planned as core controls.

Quality discipline

Output names alone are insufficient. Sampling methods, analytical data, specification limits and buyer acceptance will determine commercial release.

Resource efficiency

Future process development will assess water, reagent, energy and residue strategies through measured trials rather than unverified environmental claims.

Confidentiality & IP

Public transparency about company direction is balanced with protected recipes, experimental data, economics, supplier terms and customer requirements.

Development status

Clear about today. Disciplined about tomorrow.

WorkstreamCurrent public statusNext evidence gate
Phase 1 industrial platformPlanned and under development

Final engineering, site, equipment trials, approvals and financing

Feedstock systemQualification framework in development

Verified counterparties, conditional volumes and acceptance criteria

Phase 1 material outputsIntended product categories

Representative mass balance, assays and buyer specifications

Phase 2 advanced recoveryResearch and validation roadmap

Laboratory proof, pilot repeatability and demonstration evidence

Frequently asked questions

Understanding the Aadhya Ionix platform.

No. Aadhya Ionix is developing its proposed Phase 1 platform. Public descriptions of architecture, capacity or outputs are planning references and not statements of commissioned operations.

Contact Aadhya Ionix

Let’s build the next loop in India’s battery value chain.

Tell us whether you represent feedstock, material demand, technology, research, engineering, infrastructure or strategic capital. Relevant technical and commercial information can be shared through a structured qualification process.

Aadhya Ionix Private LimitedRegistered Office: Pune, Maharashtra, Indiaaadhyagreen.recycling@gmail.comCommercial enquiries: +91 74208 67540Operations enquiries: +91 92252 68311