ELV / Vehicle Deconstruction: Context
Industrializing ELV sites: capacity, compliance, and productivity without land sprawl
The ELV sector is entering a phase of industrialization:
- Increasing requirements (traceability, compliance, safety)
- Streamlining of flows
- Acceleration of the used parts market (PRE).
In this context, many players anticipate consolidation of the center network (fewer, more industrial sites), which implies that the remaining sites must: rationalize, increase their capacity (ELV, PRE, storage) and meet new standards.
Consequence: some sites will disappear, others will adapt with two main options:
- reorganize an existing site
- relocate/expand, if possible.
Comparison of operations with and without Hi Park
| Theme | Current Practices (flat ELV site) | With Hi Park | Operational Benefit |
|---|---|---|---|
| Capacity / Land Use | Flat storage, constrained density | Verticalized (3D) storage | Reduced footprint or significant capacity increase with constant land use |
| Internal Handling | Manual movements and frequent re-handling | Automated handling controlled by orchestration | Fewer parasitic handling operations, more regular activity |
| Organization by Status | Empirical zones, frequent relocations | Structured stock by rules and status (priorities) | Better management of emergencies and workshop flows |
| Performance at High Density | Degraded productivity as the site fills up | Stable performance even at high density | Less time wasted (searching/repositioning) |
| Weather Conditions | Direct exposure (rain, heat, cold) | Process less dependent on weather conditions (depending on configuration) | Improved operational continuity |
| Safety / HSE | Co-activity, dense traffic, human risks | Stock designed without human presence in routine | Risk reduction, safer operation |
| Traceability / Compliance | Sometimes heterogeneous and manual tracking | Traceability of movements + structured reporting | More reliable management, facilitated audits |
| Security / Theft / Damage | Risk and malicious acts difficult to control | Stock isolated from human presence (controlled access) | Reduction of damage and loss risks |
Option 1 — Reorganize / Rationalize an Existing Site (often the fastest route)
Option 1 — Reorganize / Rationalize an Existing Site (often the fastest route)
Objective: gain capacity without reopening all heavy investments (soil, networks, buildings). In this scenario, densifying ELV stock is often the key lever: it frees up space for workshops/flows and limits developments.
A common solution: cantilever (typical densification ~x2.5 depending on sites).
- Frequent limits: densification that increases capacity without freeing up space
- Another consequence: investments in dedicated equipment, manual handling remains
Hi Park Solution: Superior Densification (order of magnitude: ~x5 vs flat, ~x2 vs cantilevers)
- Hi Park brings a densification leap that increases capacity and frees up space
- Hi Park transforms a manual handling process into an automated system
Hi Park greatly increases the feasibility of staying on the same site, reducing indirect CAPEX, delays, and complexity while ensuring operational continuity
Option 2 — Expand / Relocate to a Larger Site (often more costly and risky)
Objective: start fresh, but with:
- procedures (four-season study, authorizations...) and delays
- local acceptability often difficult (municipalities / residents)
- heavy investments (buildings, developments, racks)
- soil/water treatment, new infrastructure requirements
- dismantling/depollution of the old site
- loss of residual depreciation on the old site and low reuse of equipment.
Hi Park Solution: highly densified stock and automated handling
Land Optimization
Hi Park reduces the ground footprint of the stock to the point of limiting land requirements
Process Evolution
Hi Park provides an additional lever for process evolution
Future Factory Image
Hi Park contributes to the 'future factory' image of ELV sites
Hi Park reduces the target surface area, opens up smaller plots, and contributes to a more 'industrial' image, often more acceptable to local residents and communities.
Site Creation / Extension: Classic vs Hi Park
| Theme | Classic Site (flat / cantilever) | With Hi Park | Operational Benefit |
|---|---|---|---|
| Land Sizing | High surface area from initial design | More constrained surface possible, then progressive densification | Reduction of land risk from project launch |
| Scaling Up | Extension by hectares and heavy work | Scaling up by modules and successive phases | Controlled scalability, optimized time-to-capacity |
| CAPEX & Investment Trajectory | High indirect investments (soil, roads, buildings) | More phaseable CAPEX according to development scenarios | Better alignment between investment and actual load |
| Operation During Evolution | Work often disruptive to existing operations | Progressive integration possible without major disruption | Reduction of interruptions and operational losses |
| Local Acceptability / Image | Visible 'large park', strong footprint, possible local tensions | 'Future factory' image, more compact and discreet site | Facilitates certain projects in constrained areas |
| Reversibility | Strongly immobilized and inflexible assets | Modularity and reconfigurability (depending on design), even reuse/relocation | Strategic flexibility |
Hi Park: ELV-first
ELV-first: designed to structure flows and statuses
On an industrialized ELV site, the challenge is not just to store: it is to manage statuses and priorities (waiting, depollution, dismantling, PRE, shipping...), with robust operation in the face of peaks and uncertainties.
Hi Park provides:
- orchestration that prioritizes movements according to urgencies and statuses
- structured operation (fewer re-handlings)
- a logic of zone separation (storage designed without human presence in routine).
ESG Impact — Land, Energy & Water
Land Sobriety
Densify rather than sprawl (ZAN logic).
Hi Park
Energy (option)
Possible PV coverage without loss of storage capacity (depending on configuration), with self-consumption/injection/controlled charging scenarios.
Water
Recovery and management of rainwater (non-potable uses: washing/watering) according to local regulations.
Durability
Modularity, reversibility, recyclability — and potential for reuse/relocation depending on design and site constraints.
Responsible Operation
Safety, reduction of hardship, and traceability for reliable and humane operation.