Pricing

[Catastrophic Device] ──> [Hazardous Extraction Environment]
                          ├── Metallurgical: Lead Solder Fumes & Neurotoxins
                          ├── Chemical: Nitric/Rosin Acid Board Stripping
                          ├── Thermal: 350°C+ High-Heat Underfill Softening
                          └── Mechanical: Micro-Abrasive Grinding & Surgical Blades

• Neurological Damage: Inhaled lead particles directly enter the bloodstream, causing cognitive decline, chronic headaches, and central nervous system damage.
• Respiratory Distress: The chemical rosin fluxes mixed into the solder core release intense fumes that cause chronic occupational asthma, eye inflammation, and severe respiratory tract scarring.
• Bioaccumulation: Lead accumulates in human bones and organs over time, requiring laboratories to invest in expensive local fume-extraction arms, custom charcoal air filtration, and strict heavy-metal decontamination protocols.

• Toxic Gassing: When these acids make contact with oxidized battery residue or copper board traces, they release toxic volatile organic compounds (VOCs).
• Chemical Burns: Handled under micro-pipettes, a single accidental splash can cause irreversible skin deep-tissue chemical burns or immediate blindness if eye barriers fail.

• Explosion Risks: Applying this extreme heat to a logic board that has been contaminated by exploded lithium-ion battery acid creates a severe thermal explosion hazard.
• Board Delamination: If the heat is mismanaged by a single degree, moisture trapped inside the fractured PCB layers will violently vaporize, causing the board to "popcorn" and permanently shattering the internal memory cells.

• Inhalation of Fiber Debris: This mechanical milling fills the immediate air with microscopic fiberglass shards and reinforced epoxy dust, which act like asbestos in the lungs if inhaled.
• Precision Sharp Injuries: Under a 40x stereomicroscope, engineers must use surgical-grade scalpels, dental picks, and razor-sharp scraping tools to manually pry away the softened epoxy underfill. Working with extreme precision under a microscope means an engineer's depth perception is restricted; a single slip with a razor-sharp tool can sever delicate traces on the chip or cause puncture wounds to the technician.

• The Most Educated Staff in the Industry: Because we operate in an environment restricted to medical professionals, our staff consists of top-tier technical minds holding the latest technology certifications and advanced forensic credentials. You are not handing your critical evidence to retail technicians; you are consulting with highly educated data specialists.
• Guaranteed HIPAA Compliance: Operating out of a medical center means our data handling protocols are built from the ground up to meet full medical-grade security. We provide an absolute guarantee of HIPAA compliance, ensuring that sensitive corporate data, personal health information (PHI), and confidential legal evidence are subjected to strict encryption and rigorous access controls.
• Fortified Medical-Grade Waste Disposal: Security extends to our physical waste stream. All destroyed components, logic boards, and storage remnants are processed through a secure medical garbage system. This waste infrastructure is completely inaccessible to outsiders and heavily locked down, rendering it physically impossible for unauthorized third parties to intercept or scavenge discarded silicon pieces or hardware.

1. Clinical Intake & Authentication: Securely executed under HIPAA guidelines within our medical professional building suite.
2. Secure HIPAA Transport: Physical media must be moved between the medical building and our heavy industrial laboratory via certified, chain-of-custody transport mechanisms that keep the data shielded from external liabilities.
3. Industrial Cleanroom Execution: Conducted at our specialized off-site industrial facility equipped with appropriate local chemical fume extraction, heavy metal containment, and Class-100 cleanroom environments.

• Determine if the critical storage media (such as NAND flash microchips) survived the initial trauma.
• Identify hidden short circuits across primary voltage rails.
• Assess whether the cryptographic engines (like Apple’s Secure Enclave) are intact.

[Standard Recovery] ──> Needs specialized labor, parts, & mitigation
                        ├── Liquid/Fire: Requires Hazmat & Chemical Decontamination (+15%)
                        ├── Drops/Impact: Requires Micro-Soldering & Donor Boards (+15%)
                        └── Cyber/Ransomware: Requires Decryption & Reverse Engineering (+20%)

• Multi-Layered Compound Failures: A simple hardware failure involves swapping a single part. A dropped, water-damaged, or burned device suffers from compounded trauma. For instance, a fire or water event doesn't just destroy components—it triggers a thermal runaway or intense corrosion that actively eats away at the 3nm or 5nm silicon traces while the device sits in storage.
• The Consumption of Donor Hardware: Physical impacts and fires warp or shatter the base logic boards. To attempt a recovery, engineers must buy and completely sacrifice multiple identical donor devices to salvage rare matching components, logic boards, and ICs. These parts are permanently consumed during the micro-surgery process, and their procurement costs are passed directly into the active recovery invoice.
• Intense Computational and Forensic Labor: In cyberattacks or ransomware scenarios, engineers aren't just fighting bad hardware; they are battling malicious cryptographic locks. Reconstructing damaged file allocation tables, reversing encryption blocks, or emulating secure boot pathways requires hundreds of hours of high-level security engineering that standard diagnostic routines cannot cover.
• Hazmat and Environmental Liability: Fire soot, toxic battery leaks, and chemical contaminants cannot simply be brushed off. They require specialized fume extraction hoods, chemical neutralizing baths, and Class-100 cleanroom isolation to protect the lab's air quality and the physical safety of the technicians.