Lab Operational Since: 17 Years, 6 Months, 8 Days·Facility Status: Fully Operational & Accepting New Cases·
Lab Operational Since: 17 Years, 6 Months, 8 Days·Facility Status: Fully Operational & Accepting New Cases·
Lab Operational Since: 17 Years, 6 Months, 8 Days·Facility Status: Fully Operational & Accepting New Cases·
SSD Data Recovery - NVMe, M.2, and SATA Drive Recovery
From the technician 2 million YouTubers trust. If your SSD is not detected or data became inaccessible, we perform component-level repair instead of canned software clicks; repairing the circuit board, rebuilding corrupted firmware, or fixing the power path so your files can be imaged safely.
If your SSD stopped working after a power loss, shows as SATAFIRM S11 in BIOS, or freezes your computer when connected, power it off immediately. Every power cycle risks the controller permanently locking or TRIM and garbage collection overwriting recoverable data on the NAND. Recovery software can't bypass a dead controller.
How Much Does SSD Data02/43
How Much Does SSD Data Recovery Cost?
SSD data recovery costs $200–$1,500: $200 for simple data copies from functional drives, $450–$600 for circuit board repair, $600–$900 for firmware reconstruction, and $1,200–$1,500 for advanced board rebuilds. Every case starts with a free evaluation and a firm quote before paid work begins. If we cannot recover your data, you pay nothing.
SSD data recovery at Rossmann Group costs $200–$1,500: $200 for simple data copies from functional drives, From $250 for file system repairs, $450–$600 for circuit board repair, $600–$900 for firmware reconstruction, and $1,200–$1,500 for advanced board rebuilds. Every case starts with a free evaluation and a firm quote before paid work begins. If we cannot recover your data, you pay nothing.
We recover data from NVMe, M.2, and SATA SSDs using PC-3000 Portable III for firmware-level repair and Hakko microsoldering stations for component-level board work. Unlike hard drive recovery, SSD failures involve dead controllers, corrupted firmware translation layers, and shorted power management ICs.
Software tools cannot reach data on a drive whose controller is dead. All work is performed in-house at our Austin lab; we do not outsource to third-party labs. Walk-in service in Austin or mail-in from all 50 states.
SSD recovery uses firmware platforms, soldering stations, and thermal diagnostics instead of cleanroom equipment. PC-3000 SSD accesses controller diagnostic mode for firmware reconstruction. Hakko microsoldering stations replace failed components; FLIR thermal cameras locate shorted ICs without applying power long enough to cause further damage.
SSD recovery uses firmware platforms, soldering stations, and thermal diagnostics instead of cleanroom equipment. PC-3000 SSD accesses controller diagnostic mode for firmware reconstruction.
Hakko microsoldering stations replace failed components. FLIR thermal cameras locate shorted ICs without applying power long enough to cause further damage.
SSD failures are electronic, not mechanical. The tools below are what we use daily at our Austin lab for controller repair, firmware rebuilding, and NAND imaging.
PC-3000 SSD
ACE Lab's SSD-specific firmware recovery platform. Accesses technological mode on Phison, Silicon Motion, Marvell, Samsung, and SanDisk controllers for service area reconstruction and flash translation layer rebuilding.
Microsoldering Stations
Hakko FM-2032 irons on FM-203 base stations, Atten 862 hot air rework, and Zhuo Mao precision BGA rework. Used for controller replacement, capacitor repair, and NAND chip-off when desoldering is required.
FLIR Thermal Imaging
Identifies shorted components, failed voltage regulators, and overheating controller ICs without applying power long enough to cause further damage. Pinpoints the fault before a single solder joint is touched.
Every Recovery on Camera
No stock photos. Watch SSD recoveries on YouTube. 2.49M+ subscribers see exactly how firmware is rebuilt and components are replaced, start to finish.
What is SSD Data Recovery03/43
What is SSD Data Recovery?
SSD data recovery is the process of extracting inaccessible files from NAND flash memory when the drive's controller, firmware, or electronics have failed. Unlike hard drive recovery, SSD recovery requires board-level electronics repair rather than mechanical work. Software tools cannot reach data on a dead controller.
The repair involves microsoldering failed components, reprogramming corrupted firmware through PC-3000, or repairing the power delivery circuit so the controller can power on and serve its data.
SSD data recovery is the process of extracting inaccessible files from NAND flash memory when the drive's controller, firmware, or electronics have failed. Unlike hard drive recovery, SSD recovery requires board-level electronics repair rather than mechanical work. Software tools cannot reach data on a dead controller.
The repair involves microsoldering failed components, reprogramming corrupted firmware through PC-3000, or repairing the power delivery circuit so the controller can power on and serve its data.
The failure is in the controller or the board, not in the NAND flash cells where your data lives. The data persists; the path to it is broken. Restoring that path requires component-level electronics work, not software scans.
SSD recovery methods include:
Logical recovery: Repairing corrupted file systems, rebuilding lost partitions, and carving deleted files from drives where the controller is still functional and TRIM has not unmapped the target blocks
Firmware recovery: Forcing the controller into safe/diagnostic mode via PC-3000, injecting a working firmware loader, and rebuilding the flash translation layer (FTL) so the drive can map and serve its data again; common on SATAFIRM S11 and other Phison/Silicon Motion controller failures
Hardware-level recovery: Component-level microsoldering to repair original controller power circuitry, replace shorted PMICs, or inject factory-mode firmware loaders to bypass failed controllers; perform board trace repair for surge-damaged or liquid-damaged drives; and chip-off NAND extraction for unencrypted drives as a last resort when the PCB is destroyed beyond repair
Last updated: March 2026
Trust signals04/43
At a Glance
SATA SSD recovery starts at $200 and reaches $1,200–$1,500 for advanced board rebuilds. We use PC-3000 Portable III for firmware-level repair and Hakko FM-2032 microsoldering stations for component-level board work. Free evaluation, firm quote before paid work, and no charge if we cannot recover your data.
$Cost: SATA SSD recovery runs $200–$1,500 depending on failure type. Firm quote after a free evaluation. If recovery fails, you pay nothing.
Equipment:PC-3000 Portable III, FLIR thermal cameras, and Hakko FM-2032 microsoldering stations on FM-203 base stations.
Guarantee: No data recovered = no charge. Free evaluation. No diagnostic fees.
Do SSDs Require an ISO 4 Cleanroom for Data Recovery?
No. ISO 4 and ISO Class 10 cleanrooms are not required for SSD data recovery. NAND flash dies are factory-sealed inside BGA, TSOP, or monolithic packages; the media is never exposed to air during recovery; board-level microsoldering and PC-3000 firmware repair happen on an ESD-controlled bench.
Why SSD Recovery Is Board Repair, Not Cleanroom Work
SSD data recovery is a microsoldering discipline. When an SSD fails, the NAND memory is usually fine; the controller, PMIC, or power-rail components on the PCB have died. Recovery means component-level board repair to revive the original controller so it can decrypt & present its own data.
A cleanroom solves a mechanical hard drive problem that does not exist on solid-state media.
Hard drive recovery needs a 0.02 micron ULPA-filtered clean bench because the platters are exposed to air the moment the lid comes off; a single dust particle at 7,200 RPM destroys the surface. Donor heads get swapped in that filtered environment.
SSDs have no platters, no heads, no exposed media. The NAND dies are sealed inside BGA packages & stay sealed through the entire recovery. Particulate control is the wrong tool.
The right tool is a microsoldering bench. When a controller shorts or a PMIC fails, we locate the dead component with FLIR thermal imaging and lift it with an Atten 862 hot air rework station. A Hakko FM-2032 microsoldering iron on an FM-203 or FX-951 base station preps the pads and handles passive components; full reballing and BGA reflow of the controller happen on a Zhuo Mao precision BGA station.
Once power delivery is restored, PC-3000 SSD handles firmware-level operations: factory-mode microcode injection and Flash Translation Layer reconstruction. Board repair IS data recovery for any modern SSD with hardware-bound encryption keys; chip-off yields ciphertext without the original controller.
That's why the circuit board repair tier runs $450–$600 & advanced board rebuilds reach $1,200–$1,500. It's the same bench discipline Louis Rossmann built over 16+ years of logic board repair, applied to storage controllers instead of MacBook power management.
Microsoldering Mechanics
Board-Level Microsoldering and the Physical Mechanics of SSD Recovery
Board-level microsoldering is the physical mechanism of SSD data recovery. When a controller shorts, a PMIC dies, or a power rail collapses, a technician removes, reflows, or replaces BGA packages on the PCB to bring the drive back to a responsive state. That work happens on an ESD-controlled bench.
Airborne contamination is irrelevant to a plastic or ceramic encapsulated package of silicon.
Board-level microsoldering is the physical mechanism of SSD data recovery. When a controller shorts, a PMIC dies, or a power rail collapses, a technician removes, reflows, or replaces BGA packages on the PCB to bring the drive back to a responsive state. That work happens on an ESD-controlled bench.
Airborne contamination is irrelevant to a plastic or ceramic encapsulated package of silicon.
Hard drive recovery is a different discipline. Platters spin open to room air the moment the lid comes off; a 0.02 micron ULPA-filtered clean bench exists to keep dust off the magnetic surface during head swaps. That is why HDD recovery carries a particulate-control line item.
SSDs store bits in NAND flash dies sealed inside plastic or ceramic BGAs. There is no exposed medium, no fly height, and no airborne pathway to the data. A vendor selling a Class 100 cleanroom as a requirement for SSD work is selling overhead, not physics.
The tools that matter for SSDs are electronics tools. A Hakko FM-2032 microsoldering iron on an FM-203 or FX-951 base station handles pads, passives, and fine-pitch rework. An Atten 862 hot air rework station lifts and reflows QFN packages and smaller BGAs.
A Zhuo Mao precision BGA rework station handles full controller reballing with stencil-aligned solder spheres. PC-3000 SSD then injects volatile microcode into the controller SRAM to rebuild the Flash Translation Layer once power delivery is back.
Pricing follows the work the drive actually needs. SATA SSD circuit-board repair starts at $450–$600; NVMe controller firmware reconstruction runs $900–$1,200; a simple data copy from a healthy SATA SSD begins at $200. Competitors inflate those numbers with cleanroom overhead that the hardware does not require.
Why Is SSD Data Recovery a Board-Repair Problem, Not a Cleanroom Problem?
SSD data lives inside NAND flash dies that are already epoxy-encapsulated at the factory in BGA, TSOP, or monolithic packages. The media is sealed before the drive ever leaves the fab, so opening the SSD enclosure exposes nothing to air. Recovery is a board-repair problem.
Desolder or reball the failed controller, inject a loader into SRAM, rebuild the translator, and image through PC-3000 SSD. A cleanroom solves an HDD particulate problem that does not exist on solid-state media.
The procedures we perform on a failed SSD are electronics procedures, not mechanical ones. Controller reballing on a Zhuo Mao precision BGA rework station. BGA reflow of the controller package when solder joints fracture. Chip-off NAND reads when the controller is unrecoverable and the NAND is not hardware-encrypted.
ROM pin-shorting on controller-specific diagnostic pads to force Safe Mode entry. SRAM loader injection through PC-3000 SSD to bypass the corrupted firmware translator and mount the raw NAND as addressable media. None of those steps require particulate control. They require a microsoldering bench, a thermal camera, and a firmware tool that understands the specific controller family.
The cleanroom pitch that high-price labs push for SSD work is a category error. NAND dies are packaged against particulate ingress at manufacture; a Class 100 room adds no protection the package does not already provide. Read the full teardown on the SSD cleanroom myth page.
Physical Requirement
HDD Recovery
SSD Recovery
Particulate control
Required. 0.02 micron ULPA-filtered clean bench; platters expose to room air at head-swap time.
Not required. NAND dies are sealed inside BGA, TSOP, or monolithic packages at manufacture.
Primary recovery bench
Clean bench with donor-drive parts inventory.
ESD-controlled microsoldering bench with hot air, BGA rework, and thermal imaging.
Core tool for physical work
Head-stack comb for donor transplant; spindle alignment jig.
Hakko FM-2032 microsoldering iron, Atten 862 hot air rework, Zhuo Mao BGA rework station.
Core tool for logical work
PC-3000 Express or Portable III with drive-family firmware modules.
PC-3000 SSD with controller-specific loaders, translator rebuild, and raw NAND imaging.
Typical physical failure
Head crash, seized spindle, scored platter surface.
Shorted PMIC, failed controller, cracked BGA solder joint, dead power rail.
Diagnostic entry path
Preamplifier access; head-map detection via vendor commands.
ROM pin-shorting to force Safe Mode; SRAM loader injection via PC-3000 SSD.
Encryption handling
Usually absent at media layer; BitLocker or FileVault handled after image.
Hardware AES on nearly all modern SSDs. Keys live in the controller, so chip-off alone yields ciphertext. Board repair restores the original controller and its keys.
Sources for the tool list and procedure descriptions live on our PC-3000 reference page. Pricing on every tier referenced above is published on this page and backed by our no data, no recovery fee guarantee.
How Hardware Encryption Forces Board-Level SSD Recovery
Modern NVMe controllers from Samsung (Pablo), Phison (PS5012-E12, PS5018-E18), Silicon Motion (SM2262, SM2263), and Marvell (88SS1321) generate a unique AES-256 Media Encryption Key inside the controller die and burn the wrapping key into per-die hardware fuses. When the PCB suffers electrical damage, the controller cannot boot, so it cannot decrypt the NAND. Chip-off returns ciphertext.
The only physical recovery path is board-level microsoldering to revive the original controller and its fused key.
On every write, the controller encrypts the data block with AES-256 in XTS mode and uses the logical block address as the per-sector tweak. On every read, it decrypts inline before handing the bytes back to the host. The Media Encryption Key (MEK) is generated by the controller on first power-on and never leaves the silicon.
On a TCG Opal 2.0 drive the MEK is wrapped by a Key Encryption Key (KEK) that is bound to per-die eFuses or a Physically Unclonable Function inside the controller package. That binding is irreversible. The KEK on a Samsung Pablo controller from one drive cannot be reproduced on a Pablo controller from another drive of the same model.
That is why two of the obvious-sounding shortcuts do not work on an electrically damaged encrypted SSD. First, chip-off NAND extraction (desolder the BGA flash packages, dump the dies on a programmer, reassemble the image outside the drive) returns AES-256 ciphertext. The MEK does not live on the NAND, so dumping the NAND yields nothing readable.
Second, a donor-controller swap (replace the dead controller with a matching part from a healthy donor) fails because the donor controller has its own fused KEK and cannot unwrap the MEK that was bound to the original die. The data is mathematically locked to the specific piece of silicon that originally wrote it.
The only physical path is to bring the original controller back to life. We scan the PCB with a FLIR thermal camera under bench power to find the shorted component, whether that is a blown 3.3V VCC rail, a blown 1.2V VCCQ rail, a shorted PMIC, or a cracked BGA solder joint after thermal cycling.
The Atten 862 hot-air rework station lifts the failed component. A Hakko FM-2032 microsoldering iron on an FM-203 or FX-951 base station preps the pads and handles passives. Full controller reflow or reball happens on the Zhuo Mao precision BGA station.
Once power delivery is restored, PC-3000 SSD injects a controller-specific loader into SRAM, rebuilds the Flash Translation Layer, and images the now-decrypted drive sector by sector. This is the same board-repair discipline Louis Rossmann built over 16+ years of filmed logic-board work, applied to storage controllers instead of MacBook power management.
The published pricing follows the work the silicon actually requires. SATA SSD circuit-board repair runs $450–$600; NVMe circuit-board repair runs $600–$900. Both tiers may require a donor board for harvest of clean passives, which is quoted on top of the labor tier.
Every tier is backed by our no data, no recovery fee guarantee, and a +$100 rush fee to move to the front of the queue is available to move the drive to the front of the queue.
Pricing05/43
SSD Data Recovery Pricing
SSD data recovery costs $200–$1,500 for SATA and $200–$2,500 for NVMe, depending on the failure type. Simple data copies start at $200. File system recovery starts at From $250. Circuit board repair runs $450–$600 (SATA) or $600–$900 (NVMe). Firmware reconstruction runs $600–$900 (SATA) or $900–$1,200 (NVMe). NAND transplants cost $1,200–$1,500 (SATA) or $1,200–$2,500 (NVMe). We provide a firm quote after a free evaluation.
Honest ranges so you can budget without a sales call. Free evaluation and a firm quote before any paid work begins. If it turns out easier than expected, you pay less; not a flat "worst-case" tier.
Our "no data, no fee" policy applies to hardware recovery. We do not bill for unsuccessful physical repairs. If we replace a hard drive read/write head assembly or repair a liquid-damaged logic board to a bootable state, the hardware repair is complete and standard rates apply. If data remains inaccessible due to user-configured software locks, a forgotten passcode, or a remote wipe command, the physical repair is still billable. We cannot bypass user encryption or activation locks.
No data, no fee. Free evaluation and firm quote before any paid work. Full guarantee details. NAND swap requires a 50% deposit because donor parts are consumed in the attempt.
Rush fee
+$100 rush fee to move to the front of the queue
Donor drives
A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
Target drive
The destination drive we copy recovered data onto. You can supply your own or we provide one at cost plus a small markup. All prices are plus applicable tax.
SSD recovery pricing depends on the failure type. Controller failures and board-level microsoldering cost more than firmware repairs; firmware repairs cost more than logical file system rebuilds. Select your symptoms and drive type below for a preliminary cost range. Final pricing comes after a free evaluation.
What Does My SSD Symptom07/43
What Does My SSD Symptom Mean?
Each SSD symptom maps to a specific hardware failure, recovery method, and cost tier. A drive not detected in BIOS points to a dead controller or shorted PMIC. A drive showing SATAFIRM S11 or 0 bytes indicates firmware translator corruption. A hot drive signals a shorted component drawing excessive current.
Each SSD symptom maps to a specific hardware failure, recovery method, and cost tier. A drive not detected in BIOS points to a dead controller or shorted PMIC. A drive showing SATAFIRM S11 or 0 bytes indicates firmware translator corruption. A hot drive signals a shorted component drawing excessive current.
Logical damage (TRIM status determines feasibility)
File system rebuild if TRIM has not unmapped blocks
From $250
Prices are starting points. We provide a firm quote after a free evaluation.
Identify Your SSD Failure Type08/43
Identify Your SSD Failure Type
Select the symptom your SSD is showing. This tool explains what the failure likely is, how we recover from it, and the approximate cost.
Cost comparison09/43
How Does SSD Recovery Pricing Compare to Large Labs?
Rossmann Group publishes 5 pricing tiers from $200–$1,500 with a firm quote after a free evaluation. Large national labs quote by phone after a paid evaluation and typically price SSD recovery at $2,000 to $7,000 for the same firmware repairs. The table below reflects published customer reports and competitor pricing pages as of early 2025.
Rossmann Group publishes 5 pricing tiers from $200–$1,500 with a firm quote after a free evaluation. Large national labs quote by phone after a paid evaluation and typically price SSD recovery at $2,000 to $7,000 for the same firmware repairs. The table below reflects published customer reports and competitor pricing pages as of early 2025.
Provider
Price Range
Pricing Model
No Data, No Fee
Rossmann Group
$200–$1,500
5 published tiers with exact prices, firm quote after free evaluation
Yes
DriveSavers
$2,000 - $7,000+
Call for quote, percentage-based legacy model
Varies
Ontrack / Secure Data
$800 - $3,000+
Call for quote
Varies
Industry estimates based on published customer reports and competitor pricing pages (2024-2025). Actual quotes vary by case.
Rossmann publishes 5 SSD recovery pricing tiers from $200–$1,500 because the cost of a firmware rebuild doesn't change based on who is asking. Every recovery is performed in-house at our Austin lab by the same technicians who diagnose the drive, with flat-rate pricing based on the required repair rather than perceived urgency.
Rossmann publishes 5 SSD recovery pricing tiers from $200–$1,500 because the cost of a firmware rebuild doesn't change based on who is asking. Every recovery is performed in-house at our Austin lab by the same technicians who diagnose the drive, with flat-rate pricing based on the required repair rather than perceived urgency.
Most data recovery labs hide their pricing behind a phone call because their business model depends on quoting based on how desperate you sound. We publish ours because we are confident in what we charge. A firmware rebuild is a firmware rebuild whether you found us through Google or through a referral. The price does not change based on who is asking.
Every recovery listed on this page is performed in-house at our Austin lab. We do not outsource to a third-party lab. We do not broker your drive to another company. The same technicians who diagnose your SSD are the ones who repair it, image it, and verify the files.
You can watch the actual work on Louis's YouTube channel, where we record live recoveries, including the failures. That level of visibility is the opposite of what large labs offer.
Rossmann Repair Group is also one of the most visible advocates for the Right to Repair movement. Louis has testified before the FTC and state legislatures to fight manufacturer restrictions that block independent repair shops from accessing the parts, tools, and documentation needed to fix your devices.
That fight is not separate from what we do here. When a manufacturer designs an SSD so that only their authorized service center can access the encryption keys, that is a repair restriction. We work around it with engineering, not permission.
Can Data Be Recovered From11/43
Can Data Be Recovered From a Dead SSD?
Yes, in most cases: a dead SSD usually means the controller has failed, the firmware translation layer is corrupt, or a power management IC has shorted. None of these conditions erase the data in the NAND flash. A dead controller does not mean dead data; the failure blocks the path to the NAND.
Flash cells hold charge without power. The data persists even when the controller cannot read it.
Yes, in most cases: a dead SSD usually means the controller has failed, the firmware translation layer is corrupt, or a power management IC has shorted. None of these conditions erase the data in the NAND flash. A dead controller does not mean dead data; the failure blocks the path to the NAND.
Flash cells hold charge without power. The data persists even when the controller cannot read it.
A dead controller does not mean dead data. The failure blocks the path to the NAND; it does not wipe the NAND itself.
For shorted components, we locate the failure with a FLIR thermal camera and replace the damaged IC under a Hakko microsoldering station. For firmware corruption, we force the controller into diagnostic mode via PC-3000 and rebuild the flash translation layer from raw NAND metadata. For controller death, we repair the surrounding power delivery circuit so the original controller can power up and serve its data.
The one scenario where SSD data is permanently gone: hardware-encrypted drives where the controller is destroyed beyond repair. Modern NVMe controllers bind AES-256 encryption keys to unique hardware fuses inside the silicon. If the controller cannot be revived through board-level repair, the keys are lost and the NAND contains only unreadable ciphertext.
This is why we focus on repairing the original board rather than attempting chip-off; the decryption chain depends on the original controller functioning.
Is SSD Data Recovery Worth12/43
Is SSD Data Recovery Worth It?
SSD data recovery is worth it when the files are irreplaceable and no backup exists. Business records, research data, project files, and family photos have no replacement cost. If the files exist in cloud storage or a separate backup drive, recovery is unnecessary. Reputable labs perform risk-free diagnostics before any paid work begins, allowing customers to assess viability in advance.
SSD data recovery is worth it when the files are irreplaceable and no backup exists. Business records, research data, project files, and family photos have no replacement cost. If the files exist in cloud storage or a separate backup drive, recovery is unnecessary.
Our free evaluation lets you assess that before committing to any payment.
Our SSD recovery pricing ranges from $200–$1,500. A file system rebuild costs From $250. Board-level repair costs $450–$600. Firmware reconstruction costs $600–$900. Before committing, you get a free evaluation and a firm quote. We do not start work until you approve the price. If we cannot recover your data, you pay nothing under our no data, no fee guarantee.
The risk calculation is straightforward: you pay $0 to find out whether recovery is possible, and you only pay if we deliver your files. Compare that to national labs where the same firmware rebuild can cost $2,000 to $5,000 with no published pricing.
How Long Does SSD Data13/43
How Long Does SSD Data Recovery Take?
SSD data recovery typically takes 3 to 8 weeks, depending on the failure type. Firmware repairs take 3 to 6 weeks. Board-level microsoldering and NAND degradation cases take 4 to 8 weeks, covering diagnostics, controller stabilization, translator rebuilding, multi-pass NAND imaging, and file system extraction to a target drive.
SSD data recovery at our Austin lab takes 3 to 8 weeks, depending on the failure type. A rush option is available to move to the front of the queue.
Multi-pass read retries with adjusted voltage thresholds and cooling periods
We provide a time estimate alongside the price quote after the free evaluation. A +$100 rush fee to move to the front of the queue is available to move to the front of the queue. If your case is time-sensitive, mention that when you ship the drive; we prioritize urgent cases.
Why software fails14/43
Why Can't Software Recover a Dead SSD?
Software recovery tools require a functioning controller to access NAND flash memory. When the SSD controller fails, the drive does not enumerate in the operating system. No software on earth can reach flash it cannot see. Retrieving files requires component-level board repair to restore power to the original controller, then imaging through PC-3000.
Software recovery tools require a functioning controller to access NAND flash memory. When the SSD controller fails, the drive does not enumerate in the operating system. No software on earth can reach flash it cannot see.
Retrieving files requires component-level board repair to restore power to the original controller, then imaging through PC-3000.
Three hardware conditions make software recovery impossible on SSDs: a dead controller, TRIM-erased blocks, and hardware encryption without the original controller intact.
Dead Controller
Software requires a functioning controller to communicate with the drive over USB, SATA, or NVMe. If the controller is dead, the drive does not enumerate. No interface, no access, no recovery path for any software tool.
TRIM Erasure
When you delete files on an SSD, the operating system sends a TRIM command. The controller marks those blocks as invalid and returns zeroes to any read request. Software cannot access data the controller has logically unmapped. This is the opposite of hard drives, where deleted files persist until overwritten.
Encrypted NAND
Modern SSD controllers encrypt all data at rest using AES-256. The encryption key lives inside the controller. Even if you desolder the NAND chips, without the controller's key the raw data is unreadable ciphertext.
The top search results for "SSD repair" recommend running CHKDSK /f /r, updating firmware through manufacturer dashboards, or using third-party partition managers to "fix bad sectors." These methods address logical file system corruption on a drive whose controller is alive and responding. When an SSD fails from a shorted PMIC, a dead controller IC, or degraded NAND that has exhausted its spare block pool, no software command reaches the flash memory. The controller is the sole gateway, and it is offline.
SSD repair for data recovery is component-level board work: locating a shorted capacitor with a FLIR thermal camera, replacing the failed part under a Hakko microsoldering station, and stabilizing the controller long enough to image the NAND through PC-3000 Data Extractor.
Running CHKDSK on a drive with degraded NAND forces intensive write operations that overwrite file system metadata needed for a clean data extraction. Forcing a failing controller to continuously map these new writes can trigger a catastrophic failure of the flash translation layer. The partition manager "bad sector repair" tools that competitors promote cannot rejuvenate physically worn floating-gate transistors; by the time the OS reports bad sectors, the drive's internal spare block pool is already exhausted.
If your SSD is detected with correct capacity and responds to read commands, software tools may help. If the drive shows 0 bytes, reports a wrong model name, gets hot on contact, or is invisible to BIOS, the failure is electronic. Power it off and request a free evaluation. We provide a firm quote under our no data, no fee guarantee before any paid SSD repair work begins.
Software vs lab15/43
How Do You Know If Your SSD Needs Software or Lab Recovery?
The failure mode determines the recovery path. If the SSD controller is alive and the drive reports its correct capacity to the operating system, software tools can recover data. If the controller is dead, the firmware is corrupt, or the drive is not detected in BIOS, no software can reach the NAND. Board-level repair comes first; imaging comes second.
The failure mode determines the recovery path. If the SSD controller is alive and the drive reports its correct capacity to the operating system, software tools can scan the file system and recover data without opening the case. If the controller is dead, the firmware is corrupt, or the drive is not detected in BIOS, no software can reach the NAND. Board-level repair comes first; imaging comes second.
If TRIM is inactive (external USB enclosures, some Linux configurations, older macOS without trimforce enable), deleted file data remains on the NAND until overwritten by new writes. Software scans the raw blocks and rebuilds file signatures. Once TRIM has executed, those blocks return zeroes and software recovery is not possible.
Formatted Partition on a Healthy Drive
A quick format destroys the file table but leaves underlying data intact. If no new data has been written and TRIM has not unmapped the blocks, software can reconstruct the partition map and recover files. Full formats on SSDs trigger TRIM across the entire volume, making recovery impossible after completion.
Drive Recognized by OS with Correct Capacity
If the SSD appears in Disk Management (Windows) or Disk Utility (macOS) with its correct model name and full capacity, the controller and flash translation layer are functional. The failure is at the file system level. Software can target logical corruption without hardware intervention.
Scenarios That Require Lab Recovery
When the hardware path between NAND and host is severed, software has no interface to work with. Running recovery tools on a drive in these states forces the controller to retry reads on failing NAND, accelerating degradation.
Controller Failure: Drive Not Detected in BIOS
A dead controller or shorted PMIC prevents the drive from enumerating. No operating system sees it; no software can address it. We locate the short with a FLIR thermal camera, replace the failed component under a Hakko FM-2032 microsoldering iron, and restore power to the controller before imaging through PC-3000. Cost: $450–$600 to $1,200–$1,500.
Firmware Corruption: Drive Stuck in Safe Mode
When the flash translation layer corrupts, the SSD may report as SATAFIRM S11, show 0 bytes, or display the wrong model name. The controller cannot map logical addresses to physical NAND pages. PC-3000 SSD forces the controller into diagnostic mode and rebuilds the translator from raw NAND metadata. Cost: $600–$900.
NAND Degradation: Accumulating Read Errors
As NAND cells wear past their rated program/erase cycles, read errors exceed the controller's ECC correction threshold. Software receives corrupted data or timeout errors. Lab recovery uses PC-3000's Read Retry with adjusted voltage thresholds and thermal stabilization to shift sensing margins back into readable range. Cost: $600–$900 to $1,200–$1,500.
TRIM-Erased Data: Physically Zeroed Blocks
After TRIM executes, the controller returns zeroes to all read requests for the affected addresses. Software sees empty space. If the drive died from a hardware failure before TRIM completed, the data may still be on the NAND. Otherwise, TRIM erasure is permanent regardless of method; neither software nor lab work can retrieve zeroed blocks.
Encrypted Controller: AES-256 Key Bound to Dead Silicon
Modern SSD controllers encrypt all data at rest with AES-256, binding the media encryption key to hardware fuses inside the controller die. If the controller dies, desoldering the NAND yields only ciphertext. Chip-off is not a viable path. The only recovery option is component-level board repair to revive the original controller so it can decrypt its own storage. Cost: $450–$600 to $1,200–$1,500.
If you are unsure which category your drive falls into, check BIOS first. A drive that appears with its correct model name and capacity is a candidate for software recovery. A drive that is invisible, shows the wrong identity, or gets hot on contact needs lab evaluation. Our evaluation is free, and we provide a firm quote under our no data, no fee guarantee before any paid work begins.
How it works16/43
How Does SSD Recovery Work?
SSD recovery restores access to NAND flash by repairing the circuit board, reconstructing the firmware, or fixing the power delivery circuit that failed. The process starts with a free evaluation, moves to component-level board repair or firmware reconstruction, and ends with sector-by-sector imaging through PC-3000.
The data recovery industry is filled with “flat rate” scams and companies that prey on your panic. I started this business to be the antidote to that.
I have testified before Congress and State Legislatures fighting for your Right to Repair. I have built a YouTube channel with over 2.5 million subscribers by showing our work; honestly and transparently; for over a decade. I am not going to throw away that reputation to make a quick buck on your hard drive.
My promise is simple: If we cannot recover your data, you do not pay a cent.No “attempt fees,” no “clean room fees,” no surprises. You deal with engineers, not salespeople.
Our Austin lab operates on a transparency-first model. We use industry-standard recovery tools, including PC-3000 and DeepSpar, combined with strict environmental controls to make sure your hard drive is handled safely and properly. This approach allows us to serve clients nationwide with consistent technical standards.
Serving clients nationwide via mail-in service since 2008. Our lead engineer holds PC-3000 and HEX Akademia certifications for hard drive firmware repair and mechanical recovery.
Our "No Data, No Charge" policy means we assume the risk of the recovery attempt, not the client.
LR
Technical Oversight
Louis Rossmann
Louis Rossmann's well trained staff review our lab protocols to ensure technical accuracy and honest service. Since 2008, his focus has been on clear technical communication and accurate diagnostics rather than sales-driven explanations.
We believe in proving standards rather than just stating them. We use TSI P-Trak instrumentation to verify that clean-air benchmarks are met before any drive is opened.
These scenarios represent the range of SSD failures we evaluate at our Austin lab: controller-side shorts identified by FLIR thermal imaging, SATAFIRM S11 firmware translator corruption worked through PC-3000, liquid-damaged MacBook logic boards repaired for Secure Enclave decryption, and degraded NAND imaged through multi-pass thermal reads.
Samsung 980 Pro 2TB
Controller Short
When a Samsung 980 Pro is dead to the system, FLIR thermal imaging can reveal thermal runaway on the PMIC. Replacing shorted capacitors and reflowing the power management IC can restore the power path, allowing the drive to boot in PC-3000 for image extraction.
When an SSD drops offline after years of heavy writes, the service area can become partially unreadable. Forcing the drive into safe mode via PC-3000 allows translator reconstruction from surviving metadata, followed by multi-pass reads using thermal stabilization to recover degraded sectors.
Typical recovery path
MacBook Air (Soldered SSD)
SSD Shorted & Smoked
Board-level short caused the SSD controller area to overheat and smoke. Thermal imaging located the failed component. Replaced the shorted IC, restored power path, and imaged the soldered NAND through the repaired board. Watch this case.
Full recovery
Lab verification18/43
Bench Log
Recent Recoveries
Date
Drive / Controller
Issue
Tool
Result
Feb 2026
2TB Phison E12
Firmware Translation Layer Corruption
PC-3000 Portable III
Full Recovery
Feb 2026
Samsung 870 EVO
Degraded NAND / Bad Blocks
PC-3000 Read-Retry
98% Recovered
Jan 2026
Silicon Motion SM2258XT
Controller Lockup
PC-3000 Firmware Reconstruction
Full Recovery
Videos19/43
Watch Real SSD Recoveries
These four videos document complete SSD recovery cases filmed at our Austin lab: NVMe firmware injection and translator rebuild via PC-3000, MacBook SSD thermal failure and Secure Enclave board repair, Samsung 970 EVO silent NAND degradation, and a MacBook Pro question mark folder repaired through V2.7 NAND power rail trace work.
Full walkthrough: save mode activation, firmware injection, translator rebuild, and heat-assisted NAND reading on a failing NVMe drive.
Video Summary
This video walks through a complete NVMe SSD recovery case from initial diagnosis to final file extraction. The drive fails to enumerate in the operating system, showing no capacity and no model string. The PC-3000 Portable III with its PCIe SSD adapter communicates with the failed controller at the hardware level, bypassing the normal host interface entirely. The first step is placing the controller into Techno Mode, a diagnostic state that halts normal controller logic and allows the recovery tool to issue low-level vendor commands. From there, PC-3000 reads the service area modules where the firmware translation layer (FTL) is stored. Several FTL modules are corrupt, preventing the controller from mapping NAND addresses to logical block addresses. The repair involves injecting a working firmware loader and rebuilding the translator using surviving metadata from the NAND chips. Because the NAND cells have accumulated write wear and some pages show charge retention loss, standard reads return ECC errors. The video demonstrates the heat-assisted read technique: controlled warming of the NAND package shifts the voltage threshold distributions back into readable range, reducing uncorrectable bit errors enough for the ECC decoder to reconstruct the data. After the translator rebuild, the drive becomes accessible through the PC-3000 imaging pipeline. The case shows why controller failure on an NVMe drive does not mean permanent data loss, provided the NAND itself still holds valid charge and the service area metadata can be reconstructed.
This video covers a MacBook Air that arrived with visible thermal damage: the SSD controller area on the logic board had shorted, drawing excessive current, and the area around the NAND package showed heat discoloration. The SSD is soldered directly to the logic board with no removable module. The diagnosis begins with a FLIR thermal camera to locate the shorted component before applying power. The failed IC is identified near the NAND power rail. Repair involves desoldering the failed component under a Hakko microsoldering station, fitting a matching donor part, and rebuilding the damaged board traces adjacent to the pad. Because this is an Apple Silicon MacBook, the NAND is encrypted by the Secure Enclave inside the M-series SoC. Chip-off recovery is not viable: desoldering the NAND packages produces only AES-256 ciphertext with no accessible key. The only path to the data is restoring enough board functionality that the Secure Enclave can power on and decrypt in place. After component replacement and trace repair, the board powers on. The Secure Enclave initializes, the APFS volume mounts, and the data is extracted through the repaired board. The case illustrates why board-level microsoldering capability is required for Apple T2 and M-series SSD recovery, and why labs without soldering capability cannot handle these cases.
Samsung 970 EVO recovery: Samsung Magician reported "healthy" while NAND sectors degraded silently. PC-3000 multi-pass reading extracts data that consumer diagnostics missed entirely.
Video Summary
A Samsung 970 EVO 2TB NVMe drive passed every Samsung Magician health check, yet the customer experienced intermittent file access failures. The Phoenix controller's aggressive error correction silently handled degraded NAND sectors without escalating them to SMART alerts. Samsung Magician sampled only healthy sectors during speed tests, masking the real condition. PC-3000 Portable III connects at the PCIe hardware level and maps every physical sector, exposing large zones of degraded NAND that consumer tools cannot detect. The recovery uses multi-pass reading with varying voltage thresholds to coax readable data from cells where charge retention has dropped below the standard sensing margin. This case demonstrates why drives with Samsung Phoenix controllers fail suddenly with no prior warning from built-in diagnostics.
MacBook Pro A1706 question mark folder: liquid damage corroded a single probe point on the V2.7 NAND power rail. Board-level trace repair restored SSD detection without replacing the drive.
Video Summary
An A1706 MacBook Pro arrived with a question mark folder at boot, indicating the SSD is not detected by the firmware. The drive module itself was physically intact. Liquid damage corroded a single probe point on the V2.7 NAND power rail, breaking the power path to the SSD. The repair demonstrates board-level trace repair: identifying the corroded point under magnification, cleaning the corrosion, and rebuilding the electrical connection. Once the V2.7 rail is restored, the SSD powers on, the MacBook detects it, and data is accessible again. No SSD replacement needed. This is a common failure pattern on liquid-damaged MacBooks where the drive hardware is fine but a board-level power path is broken.
Founded in 2008. All SSD recovery is performed in-house at our Austin, TX lab by the same technicians who diagnose the drive; we do not outsource or broker to third-party labs. No diagnostic fees. 4.9 stars across 1,837+ Google reviews. If we cannot recover your data, you pay nothing.
Component-level diagnosis
Microscope work, BGA rework, board-level repair; real component-level diagnosis, not just software.
YouTube transparency
We show the work, not stock photos. Founder Louis Rossmann is a Right-to-Repair leader.
In-house only
Your device stays in our Austin lab. No outsourcing, no middlemen.
No BS pricing
Clear ranges, free evaluation, no data = no charge.
Component-Level Repair
No Data = No Fee
All Work In-House
2M+ YouTube Followers
Diy check21/43
Can You Recover the Data Yourself?
Software recovery tools work only when the SSD controller is alive and the drive reports its correct capacity to the operating system. If the SSD is not detected in BIOS, shows 0 bytes, gets hot on contact, or reports as SATAFIRM S11, no software can reach the NAND. Component-level board repair is required before any data can be imaged.
Software recovery tools work only when the SSD controller is alive and the drive reports its correct capacity to the operating system. If the SSD is not detected in BIOS, shows 0 bytes, gets hot on contact, or reports as SATAFIRM S11, no software can reach the NAND. Component-level board repair is required before any data can be imaged.
Software recovery tools work only when the SSD controller is alive and the drive reports its correct capacity to the operating system. If the controller is dead, the drive doesn't enumerate, and no software can reach the NAND flash. Board-level repair is required to restore access before any data can be imaged.
Software recovery tools (Recuva, R-Studio, Disk Drill) work by scanning the file system through the operating system. They require the OS to see the drive. If the SSD controller is dead, the drive does not enumerate, and no software on earth can reach the NAND. There are no spinning platters to image with a sector reader; the controller is the only gateway to the flash memory. A dead controller means zero access at the software level.
Scenario
Software Tools
Board-Level Lab
Controller dead
No access. Drive not detected by OS.
Component-level board repair restores access for imaging.
Ultrasonic cleaning, component replacement, then imaging.
NAND degraded
ECC errors cause read failures and corrupted output.
Multi-pass thermal reads via PC-3000, FTL reconstruction.
Software tools require a functioning controller and visible drive. Board-level lab work addresses the hardware failure first, then images the data.
Safe to Try
✓Open Disk Management (Windows) or Disk Utility (macOS) and check if the drive appears at all, even without a partition
✓Try a different USB-to-NVMe or USB-to-SATA adapter; cheap enclosures fail often and mimic a dead drive
✓Check BIOS/UEFI detection; if the drive shows its correct model and capacity, the controller is alive and software tools have a chance
Stop Immediately
✗Drive gets hot to the touch within seconds of connecting; this indicates a shorted component drawing excessive current
✗Burning smell from the drive or enclosure; continued power destroys adjacent NAND chips
✗Drive reports as SATAFIRM S11 or shows 0 bytes capacity; the firmware translation layer is corrupt and repeated power cycles risk overwriting the service area
Diy dangers22/43
What Happens If You Try DIY Data Recovery on a Failing SSD?
Plugging a failing SSD into a computer triggers automatic TRIM commands, journal replays, and garbage collection that erase data the controller had flagged for deletion. Running CHKDSK or fsck on degraded NAND overwrites the directory structure needed for clean extraction, turning a firmware-level recovery into a fragmented carving job that costs more and recovers less.
Plugging a failing SSD into a computer triggers automatic TRIM commands, journal replays, and garbage collection that erase data the controller had flagged for deletion. Running CHKDSK or fsck on degraded NAND overwrites the directory structure needed for clean extraction, turning a firmware-level recovery into a fragmented carving job that costs more and recovers less.
Plugging a failing SSD into a computer triggers automatic operations that reduce recovery odds. The OS attempts to mount the volume, replaying its journal and issuing queued TRIM commands. If the controller responds, it begins background garbage collection, physically erasing pages the OS flagged for deletion.
Each of those background operations updates flash translation layer (FTL) metadata distributed across the NAND chips. On a drive with degraded NAND, those writes push worn cells past their ECC correction threshold, corrupting the mapping tables that PC-3000 needs to reconstruct the data.
Running CHKDSK /f /r (Windows), fsck (Linux), or Disk Utility First Aid (macOS) on a physically failing SSD is worse than doing nothing. These utilities detect ECC read timeouts from degraded NAND cells and misinterpret them as logical file system corruption.
CHKDSK responds by deleting corrupted directory index entries, stripping orphaned files of their original paths, and rewriting the Master File Table (MFT) to force the volume to mount cleanly. On a healthy drive, this fixes directory errors.
On a drive with failing NAND, it overwrites the original directory structure with a version that references blocks the controller can no longer read, turning a firmware-level recovery into a fragmented data carving job that costs more and recovers less.
Recovery software (Recuva, R-Studio, Disk Drill) is safe only when the SSD controller is alive and the drive reports its correct capacity to the OS. If the drive shows 0 bytes, reports as SATAFIRM S11, gets hot on contact, or is invisible in BIOS, the failure is at the firmware or hardware level.
Power it off. Do not install recovery software onto the same drive. Do not let the OS attempt repairs. Ship it to a lab that can access the NAND through the controller's diagnostic interface without triggering background operations. We provide a free evaluation and a firm quote under our no data, no fee guarantee before any work begins.
Each failure has its own diagnostic path and repair strategy. Controller failures and firmware corruption are recoverable in most cases. TRIM-erased files on a drive that kept running are not.
Controller failures and firmware corruption are recoverable in most cases. TRIM-erased files on a drive that kept running are not. An SSD has no platters, no heads, and no spindle motor. The fix is component-level electronics repair under a microscope, not a platter swap or head transplant.
Most data recovery labs are built around hard drives. Their tooling is clean rooms, platter swaps, and head stacks. None of that applies to SSDs. An SSD has no platters, no heads, and no spindle motor.
When an SSD fails from physical or electronic damage, the fix is component-level electronics repair under a microscope. Labs that lack microsoldering capability send these cases back as unrecoverable. SMART monitoring can catch wear-related failures on SSDs, but controller lockups and firmware bugs bypass SMART entirely.
Controller Failure
Symptoms:not detected, shows 0GB/8MB, instant disconnects, shows as SATAFIRM S11, or runs unusually hot. Common controllers: Phison, Silicon Motion, Marvell, Samsung, SandForce.
Our approach: diagnose PMIC/power rails, replace shorted components, or inject factory-mode firmware loaders to bypass a failed controller. We then use PC-3000 to initialize firmware and image.
Typical outlook: These are usually recoverable. A dead controller doesn't mean dead NAND. Depending on encryption architecture, we replace the controller IC or repair its power path.
Our approach:rebuild translator and metadata, direct NAND read if necessary, then extract the data by applying ECC and rebuilding the flash translation layer.
Typical outlook: Good odds when the corruption is logical rather than physical. The data is still on the chips - we just need to make sense of the scrambled map.
Board-Level Repair Techniques
Power Rail Repair
A shorted capacitor or blown PMIC (power management IC) kills the drive instantly. We use a FLIR thermal camera to locate the short, then replace the failed component under a Hakko microsoldering station. Common on Samsung 970/980 EVO drives after power surges.
Controller Failure Recovery
A dead controller does not always mean dead data. While older architectures sometimes allowed for direct controller transplantation, modern solid-state drives use complex internal mapping that makes simple chip swapping impossible. Instead, we bypass the failed controller by repairing the surrounding power delivery circuitry, correcting localized shorts, or injecting specialized factory-mode firmware loaders via PC-3000 directly into the controller's diagnostic interface to initialize the drive and reconstruct the translation layer.
Trace and Connector Repair
Bent M.2 edge connectors, cracked PCBs from drops, and corroded traces from liquid damage all sever the electrical path between NAND and controller. We repair broken traces with jumper wires under magnification and rebuild corroded pads with fresh solder.
NAND Chip-Off
Modern NVMe controllers use complex, proprietary error-correction algorithms (LDPC). Because the data is heavily mathematically encoded across the NAND chips, traditional "chip-off" data recovery is often impossible without functioning controller hardware. We focus on advanced logic board repair and firmware manipulation to temporarily revive the original controller, allowing it to decrypt and decode your data natively. The exception is monolithic NAND devices (USB flash drives, MicroSD cards, eMMC modules) where the controller and flash are fused into one package; these require direct NAND access through test pads and wire bonding rather than controller revival.
Every SSD repair listed above is temporary: we restore controller functionality long enough to image your data through PC-3000 Data Extractor, then retire the drive. A physically repaired SSD should not be reused as a production drive. The underlying failure (NAND wear, thermal damage, voltage regulator degradation) means the drive will fail again. SSD repair for data recovery is board-level component work to extract files, not a permanent refurbishment.
Liquid damage note: corrosion spreads every hour a wet drive sits unpowered. If your SSD got wet, do not try to dry it with rice or a hair dryer. Ship it to a lab. We ultrasonically clean the board, neutralize corrosion, and assess component damage before applying power.
SSD failures divide into four hardware-level conditions: controller lock, NAND degradation, translation layer corruption, and PMIC failure. Each has a distinct symptom pattern and recovery path through PC-3000 diagnostic mode or board-level microsoldering. Understanding which condition applies determines whether recovery is feasible before any work begins.
Controller Lock
The SSD controller IC enters a protective state after detecting internal errors, preventing all data access. The NAND retains your files, but the controller refuses to serve them. Recovery requires forcing the controller into a diagnostic mode via PC-3000 or repairing the failed power delivery circuit that caused the lockup.
NAND Degradation
Flash memory cells lose their ability to hold charge after repeated program/erase cycles. TLC NAND is rated for roughly 1,000 to 3,000 P/E cycles; QLC NAND for roughly 100 to 1,000. As cells wear, read errors increase until the controller's ECC can no longer correct them. We use PC-3000's Read Retry with adjusted voltage thresholds and thermal stabilization to recover sectors that fail at standard sensing margins.
Translation Layer Corruption
The flash translation layer (FTL) maps logical block addresses to physical NAND pages. When this map corrupts from power loss or firmware bugs, the drive appears empty, shows wrong capacity, or reports as SATAFIRM S11. PC-3000 rebuilds the translator tables by scanning raw NAND metadata and reconstructing the address map.
PMIC Failure
The power management IC regulates voltage to the controller and NAND. A power surge or voltage spike shorts the PMIC, killing the drive instantly. The NAND is unaffected because flash cells hold charge without power. We locate the short with FLIR thermal imaging and replace the failed PMIC under a Hakko microsoldering station.
Trim26/43
What Happens to Deleted Files on an SSD?
When you delete a file on an SSD, the operating system sends a TRIM command that marks those blocks as invalid. The controller returns zeroes to any read request for those addresses, making deleted data inaccessible through software within seconds. Physical NAND erasure follows later during garbage collection, but the controller blocks access the moment TRIM completes.
When you delete a file on an SSD, the operating system sends a TRIM command that marks those blocks as invalid. The controller returns zeroes to any read request for those addresses, making deleted data inaccessible through software within seconds. Physical NAND erasure follows later during garbage collection, but the controller blocks access the moment TRIM completes.
When you delete a file on an SSD, the operating system sends a TRIM command telling the controller which LBAs (logical block addresses) are no longer needed. The controller marks those pages as invalid in its flash translation layer (FTL). The physical NAND cells are not erased at this point.
Most modern SSDs implement DRAT or DZAT (Deterministic Read After TRIM / Deterministic Zeroes After TRIM), which means the controller immediately returns zeroes when those addresses are read through the normal interface, even though the underlying NAND cells still hold their original charge. The actual physical erasure happens later during garbage collection, asynchronously.
Once a TRIM command is fully processed, the controller intentionally blocks access to the deleted files through standard interfaces. Unless the drive suffered an immediate hardware failure before TRIM executed, the data is permanently unrecoverable through conventional software.
On a TRIMmed SSD, the data becomes inaccessible through the controller within seconds of deletion. Physical NAND erasure follows during garbage collection, but the controller will not serve the data from the moment TRIM completes.
The distinction that matters: if you deleted files and the drive kept running, TRIM has already done its job and those blocks are logically unmapped. If the drive died from a hardware failure (dead controller, shorted PMIC, firmware corruption), the data may still exist on the raw NAND.
On modern drives with hardware-level encryption (virtually all contemporary NVMe and many SATA SSDs use Self-Encrypting Drive technology by default), the decryption keys are tied to the controller. If the controller is permanently dead and cannot be revived through firmware repair or component-level microsoldering, extracting the raw NAND yields only unreadable ciphertext. Recovery in these cases depends entirely on restoring controller functionality, not on chip-off NAND extraction.
DZAT and DLFEAT: How Controllers Block Access to TRIMmed Data
SATA SSDs that support DZAT (Deterministic read ZEROs After TRIM) immediately return zeroes to any read request targeting TRIMmed logical block addresses. NVMe SSDs use a separate mechanism: the Deallocate command paired with the DLFEAT (Deallocate Logical Block Features) field in the drive's namespace metadata. When DLFEAT reports 001b, the controller returns all zeroes for deallocated blocks.
This zeroing happens at the controller's protocol layer before garbage collection physically erases the underlying NAND cells. Even if the original voltage charges remain on the floating gates for minutes or hours after deletion, the controller refuses to serve that data through any standard interface. Software tools see only zeroes.
Drives that support deterministic zeroing (such as the Samsung 860/870 SATA families and the 980 NVMe series) make software-based undelete after TRIM or Deallocate impossible; the controller enforces the deletion at the protocol level, independent of the physical state of the NAND cells.
Not all SATA SSDs support DZAT. Older drives with DRAT (Deterministic Read After TRIM) return a fixed, consistent payload for TRIMmed addresses, which may or may not be zeroes. Budget controllers with non-deterministic TRIM may return unpredictable data patterns. DZAT is required on enterprise and NAS-optimized SATA SSDs for RAID parity consistency.
On the NVMe side, the vast majority of modern NVMe SSDs enforce deterministic zeroes (DLFEAT=001b) upon deallocation. In all deterministic cases, once TRIM or Deallocate executes, the data is inaccessible from any software perspective. The only scenario where TRIMmed data might be recoverable is when the controller died before completing the TRIM operation, leaving the NAND pages intact in their pre-TRIM state.
TRIM on Windows
Windows enables TRIM automatically on any SATA or NVMe SSD using native Microsoft drivers. The Storage Optimizer (formerly Disk Defragmenter) schedules a weekly "Retrim" pass that re-issues TRIM commands for all previously deleted blocks, ensuring the controller stays current even if the initial TRIM was missed.
On a healthy Windows system, deleted data is typically logically unmapped and rendered inaccessible within seconds of deletion during normal use, and any stragglers are caught by the next weekly Retrim cycle.
TRIM on macOS
On Macs with a T2 chip (late 2017 through 2020, starting with the iMac Pro) or Apple Silicon (M1/M2/M3/M4), every byte written to the internal SSD is encrypted by default using AES-256 in XTS mode, with keys managed by the Secure Enclave inside the SoC. This encryption is always-on and transparent; you do not need to enable FileVault for it to be active.
When files are deleted, macOS sends a standard TRIM command, and the controller handles it like any other SSD: the LBAs are marked invalid in the FTL and reads return zeroes. The Secure Enclave does not destroy any keys in response to individual file deletions.
What makes T2/M-series recovery different is not TRIM behavior; it is the always-on hardware encryption tied to the specific SoC. Because every block on the NAND is AES-256 encrypted with keys that exist only inside the Secure Enclave on that specific chip, desoldering the NAND yields only ciphertext regardless of whether TRIM has run.
Chip-off is useless on these machines. The only recovery path when the logic board is dead is board-level microsoldering to get the Secure Enclave operational again so it can decrypt in place. We will not accept payment for a case we know cannot succeed.
Crypto-shredding, where the Secure Enclave destroys the volume encryption key and makes all data on the drive permanently irrecoverable, happens only during a full disk erase (Erase All Content and Settings, or a DFU restore). That operation is instant and absolute. It is distinct from per-file TRIM, which leaves the encryption keys intact.
On older Macs without a T2 chip using third-party SSDs, TRIM is not enabled by default. Users must run sudo trimforce enable to activate it. Until that command is run, deleted files persist on the NAND and standard recovery applies.
TRIM on Linux
Linux TRIM behavior depends entirely on the distribution and file system. Many distros batch TRIM commands via a weekly fstrim.timer service, creating a window where deleted data remains on the NAND before the timer executes. However, modern setups (such as Btrfs) increasingly default to asynchronous real-time discard, which unmaps blocks in the background continuously. If real-time discard is active, the data is unmapped immediately and is unrecoverable through the controller.
Write Amplification and Garbage Collection
TRIM tells the controller which blocks are free. Garbage collection is what the controller does with that information: it consolidates valid pages from partially-empty blocks into new blocks, then erases the old ones to create clean write targets. This runs continuously in the background whenever the drive is powered on and idle. Every consolidation cycle means extra writes to the NAND that the host never requested. That ratio of actual NAND writes to host writes is called write amplification. A drive with a write amplification factor of 3x wears its cells three times faster than the host workload alone would suggest. Heavy random writes, a nearly full drive, and aggressive garbage collection all push the factor higher, accelerating the path toward ECC failure and controller lockup.
The practical takeaway: if your SSD died from a hardware failure and never had the chance to run garbage collection after the crash, the metadata in the service area is likely intact, giving us a strong chance to reconstruct the FTL. If the drive was running for days in a degraded state, grinding through garbage collection cycles before it finally locked up, the controller may have already damaged the service area beyond repair. The sooner a failing drive is powered off and sent to a lab, the better.
SSD Recovery Feasibility by Failure Scenario
Operational Condition
Encryption Status
Physical / Logical State
Recovery Feasibility
TRIM enabled (NTFS, APFS)
Unencrypted
Logical deletion
Near zero; controller has zeroed the blocks
TRIM enabled (exFAT, FAT32)
Unencrypted
Logical deletion
Moderate; these file systems issue TRIM less aggressively
TRIM disabled or not issued
Unencrypted
Logical damage
High; NAND retains all data
TRIM disabled or not issued
Encrypted (key available via working controller)
Logical damage
High; decrypt in place, then image
TRIM disabled or not issued
Encrypted (key unknown or lost)
Any state
Zero; no viable decryption path
Any TRIM state
Any encryption
Severe physical damage (dead controller)
Depends on board repair feasibility; TRIM cannot execute on a dead controller
TRIM cannot execute on a physically dead controller. If the drive died from a hardware failure before the OS sent TRIM commands, deleted data is still on the NAND.
Form factors27/43
Which SSD Form Factors and Interfaces Can Be Recovered?
We recover data from SATA 2.5-inch, M.2 NVMe, and M.2 SATA form factors. Each uses a different protocol and controller architecture, requiring distinct PC-3000 modules and adapter hardware for firmware-level diagnostic access and NAND imaging. SATA SSDs use the AHCI protocol; NVMe drives communicate over the PCIe bus.
We recover data from SATA 2.5-inch, M.2 NVMe, and M.2 SATA form factors. Each uses a different protocol and controller architecture, requiring distinct PC-3000 modules and adapter hardware for firmware-level diagnostic access and NAND imaging.
SATA (2.5-inch)
SATA SSDs use the same AHCI protocol as spinning hard drives, capped at 600 MB/s. Controllers from Samsung (MEX/MJX), Silicon Motion (SM2259), and Phison (S12) follow well-documented architectures, common in laptops and desktops. Phison S11 controllers are the most common source of SATAFIRM S11 firmware failures. PC-3000 supports these natively over a standard SATA port; no adapters required.
M.2 and NVMe
M.2 is a physical connector shape, not a protocol. An M.2 slot can carry either SATA or NVMe. NVMe drives communicate over the PCIe bus with multi-queue command sets that reach 7,000+ MB/s on Gen 4 hardware. Recovery requires the PC-3000 Portable III with its dedicated PCIe SSD adapter; the tool issues low-level vendor commands over PCIe lanes to force controllers into safe/diagnostic mode, load custom firmware, and read NAND directly. Standard USB enclosures cannot do this.
USB flash drives, MicroSD cards, and eMMC modules use monolithic NAND: the controller and flash memory are fused into a single silicon package. When the controller dies, no standard interface exists for recovery software. The recovery path requires identifying the NAND die's test pads, connecting via wire bonding or microprobing, and reading the raw flash through a dedicated NAND reader for FTL reconstruction.
NAND Cell Architecture and Degradation
Data Retention Warning: Unlike magnetic hard drives, SSDs do not hold data indefinitely when powered off. While solid-state storage is reliable, data can eventually degrade if the drive is left unpowered for years. Drives that have endured heavy write activity (exhausting their rated endurance) are particularly vulnerable to charge leakage and can begin losing data in as little as a year if stored in warm environments without power. If your SSD fails, do not leave it in a drawer for months before seeking recovery; the charge in the NAND cells will leak, leading to uncorrectable bit errors.
As NAND flash cells degrade through program/erase cycles, their voltage distributions widen and the margins between states shrink. The controller compensates using error correction (LDPC or BCH), but once bit errors exceed the ECC threshold, the controller cannot resolve the page. If the corrupted pages sit in the service area where the firmware and flash translation layer (FTL) live, the controller loses its map of where data is stored. The drive drops offline and reports 0 bytes or fails to enumerate entirely. The NAND still holds the data; the controller has lost the ability to find it.
At that point, PC-3000 forces the failed controller into diagnostic mode (Techno Mode), injects a working firmware loader, and rebuilds the translator from NAND metadata. For drives with severe NAND degradation or charge retention loss, we apply controlled heat to shift voltage thresholds back into readable range; a technique demonstrated in our NVMe recovery walkthrough.
Recovery steps28/43
What Does the SSD Recovery Process Look Like Step by Step?
SSD recovery follows five stages: current profiling to identify shorts, safe mode access to prevent garbage collection, translator rebuilding to reconstruct the NAND address map, multi-pass imaging with adjusted read parameters, and file system extraction to a target drive. Each stage isolates a distinct failure class, from shorted PMICs to corrupted flash translation layers.
SSD recovery follows five stages: current profiling to identify shorts, safe mode access to prevent garbage collection, translator rebuilding to reconstruct the NAND address map, multi-pass imaging with adjusted read parameters, and file system extraction to a target drive.
Every SSD that arrives at our Austin lab goes through these diagnostic and repair stages. The specific path depends on the failure type, but the workflow is consistent.
Current Profiling: We connect the SSD to a bench power supply with current limiting and measure draw at 5V (2.5" SATA) or 3.3V (M.2 NVMe). A healthy SSD draws minimal current at idle but shows initialization spikes when it tries to load firmware. A shorted PMIC or controller pulls well above normal and shows as a hot spot on our FLIR thermal camera within seconds. This tells us whether the failure is a short circuit (needs component replacement) or a firmware/logical issue (needs PC-3000).
Safe Mode Access (ROM Mode / Pin Shorting): A failing NVMe or SATA controller left to power up normally will attempt to load its corrupted firmware and may execute background garbage collection, permanently erasing NAND blocks flagged by prior TRIM commands. To prevent this, we physically isolate the controller from the NAND by shorting specific Vout or clock pins on the PCB before applying power.
This forces the controller into a minimal ROM mode (called "Techno Mode" on Phison, "Factory Access Mode" on Samsung, "Test Mode" on Silicon Motion) where it accepts commands but does not execute autonomous background tasks.
Once in ROM mode, PC-3000 Portable III uploads a custom microcode loader directly into the controller's SRAM. This loader replaces the corrupted on-NAND firmware with a minimal instruction set that enables stable, single-channel read access to the flash. With the loader active, the controller responds to vendor-specific commands without running garbage collection, wear leveling, or TRIM execution, preserving every NAND block in its current state for imaging.
Translator Rebuilding: PC-3000 scans raw NAND metadata to reconstruct the flash translation layer (FTL), which maps logical addresses to physical NAND pages. Without this map, the drive cannot locate any files. The rebuild process reads spare area bytes from every NAND page to piece together the correct logical-to-physical mapping.
Multi-Pass Imaging: Using PC-3000 Data Extractor, we image the SSD sector by sector. Sectors that fail on the first pass get queued for retry with adjusted read parameters. For degraded NAND, we apply thermal stabilization to shift voltage thresholds into a readable range. The result is a sector-by-sector clone on a target drive.
File System Extraction: We mount the cloned image, verify file integrity, and transfer recovered data to the customer's choice of media. The original failed SSD is returned or securely retired per the customer's instructions.
Encryption29/43
How Does Hardware Encryption Affect SSD Recovery?
Virtually all contemporary NVMe and many SATA SSDs use hardware-level AES-256 encryption at the controller by default. The encryption key is generated by and bound to the controller silicon. When the controller fails, desoldering the NAND yields only ciphertext; chip-off and cleanroom workflows cannot bypass this. Board-level microsoldering to revive the original controller is the only viable physical recovery path.
The controller generates the key on first use, stores it internally, and encrypts every write transparently. When the drive functions normally, you never notice. When the drive fails, encryption determines whether chip-off recovery is even possible.
Self-Encrypting Drives and TCG Opal
Drives that comply with the TCG Opal specification store the media encryption key (MEK) internally, typically wrapped by a Key Encryption Key (KEK). On modern NVMe controllers, this KEK is cryptographically bound to unique, irreversible hardware fuses or a Physically Unclonable Function (PUF) inside the specific controller silicon that shipped with the drive.
If the controller dies, simply swapping it for a matching replacement will not work because the donor IC will lack the unique hardware key required to unwrap the MEK. Chip-off recovery is also impossible, as the raw NAND contains only AES-256 ciphertext. Recovery relies entirely on component-level repair of the original board: fixing power rails or replacing PMICs so the original controller can power up and decrypt its own storage.
BitLocker and FileVault
BitLocker (Windows) and FileVault (macOS) add a software encryption layer on top of the drive. Recovery requires the original password, recovery key, or TPM chip. If you have the recovery key, we image the drive and decrypt offline. If the key is lost and the TPM chip is on a dead motherboard, the motherboard itself needs repair to release the key. We handle both the drive-side and board-side work.
Apple T2 and M-series
Apple solders NAND directly to the logic board and ties the encryption key to the Secure Enclave inside the T2 chip (late 2017 through 2020 Macs, starting with the iMac Pro) or the M-series SoC (2020 onward). The NAND cannot be read without the Secure Enclave on the same board. If the logic board dies, the encryption key is inaccessible unless the board is repaired at the component level. Chip-off is useless here; the raw NAND is AES-256 encrypted with a key that exists nowhere else. The only recovery path is logic board microsoldering to get the board powered on so the Secure Enclave can decrypt in place. We documented one such case where a MacBook SSD that shorted and smoked required full board-level repair before the Secure Enclave could decrypt.
Bottom line: on any hardware-encrypted drive, desoldering the NAND without the original encryption key produces unreadable data. Board-level repair to restore the original controller or security chip is the only path that preserves the decryption chain. This is why microsoldering capability matters for SSD recovery; not every lab has it.
What Is the Actual Physical Mechanism of SSD Data Recovery?
SSD data recovery is electronics repair, not mechanical platter work. The NAND chips are hermetically sealed BGA packages soldered to the PCB. Recovery happens at the controller, the PMIC, and the power rails using Hakko FM-2032 microsoldering on an FM-203 base, Atten 862 hot air rework, Zhuo Mao precision BGA stations, and PC-3000 SSD for post-board firmware reconstruction.
A failing HDD has exposed platters spinning at 7,200 RPM under heads riding nanometers above the surface; a single dust particle can crash a head into the platter. That's why mechanical recovery uses a 0.02 micron ULPA-filtered clean bench. Solid-state drives have no platters and no exposed media. The data lives inside hermetically sealed BGA NAND packages factory-cured against contamination, so cleanroom airflow adds nothing to a sealed package.
What does add recovery value is the ability to put a soldering iron and a hot air pencil on a customer's board without destroying anything. When a Phison E12 or Silicon Motion SM2259 controller fails, when a PMIC shorts, or when a 0.05 ohm protection resistor blows on the 3.3V rail, the data is intact on the NAND but the controller can't enumerate. Reviving the original controller is the only path that preserves the AES-256 key bound to that specific silicon (TCG Opal, BitLocker eDrive, T2, M-series). Chip-off transplant on a hardware-encrypted drive returns ciphertext.
The board-repair tier on our SSD pricing starts at $450–$600 for SATA controller and PMIC repair and $600–$900 for NVMe board-level work. Both prices reflect the same workflow: probing the rails with a multimeter, locating a short with a FLIR thermal camera, lifting the failed component with the Atten 862, replacing it under the Hakko FM-2032, and verifying the controller boots before imaging through PC-3000 SSD. That work happens at our Austin lab bench, not in a particle-controlled chamber. The lineage of Louis Rossmann's board-level repair archive is the lab's SSD recovery capability; not every recovery service does microsoldering in-house.
SSD cleanroom30/43
Does SSD Recovery Require a Cleanroom?
No. SSDs contain no spinning platters, no magnetic media, and no exposed read/write heads. Cleanrooms exist for mechanical hard drive recovery, where airborne dust can crash heads into spinning platters. None of that applies to solid-state storage. SSD recovery is performed at an ESD-safe workstation using Hakko FM-2032 microsoldering irons, FLIR thermal cameras, and PC-3000 SSD for firmware-level repair.
No. SSDs contain no spinning platters, no magnetic media, and no exposed read/write heads. Cleanrooms (ISO-5 / Class 100 particulate control) exist for mechanical hard drive recovery, where airborne dust can crash heads into spinning platters. None of that applies to solid-state storage.
SSD recovery is performed at an ESD-safe workstation using Hakko FM-2032 microsoldering irons for replacing shorted PMICs and failed controllers, FLIR thermal cameras for locating shorts, and PC-3000 SSD for firmware-level repair. The work happens at the PCB and NAND level, not in a particle-controlled chamber.
Labs that market cleanroom capability for SSD work are applying a hard drive concept to solid-state media. That cleanroom costs $10,000+/month in rent overhead, and the customer's bill absorbs it. We cover this in depth on our SSD cleanroom myth page.
Known bugs31/43
Which SSD Controller Failures Are Most Common?
Phison E12 drives die after power interruptions mid-cache-flush. Silicon Motion SM2262EN controllers enter a locked read-reject state after SLC cache corruption. Samsung 980 Pro drives can brick from a firmware 0E health bug. Recovery depends on the specific controller, failure mode, and whether PC-3000 supports the required diagnostic interface.
Phison E12 drives die after power interruptions mid-cache-flush. Silicon Motion SM2262EN controllers enter a locked read-reject state after SLC cache corruption. Samsung 980 Pro drives can brick from a firmware 0E health bug. Recovery depends on the specific controller, failure mode, and whether PC-3000 supports the required diagnostic interface.
These failure patterns are tied to specific firmware bugs, power-loss behavior, or NAND management decisions. If your drive uses one of the controllers below, the symptoms listed will be familiar. We maintain detailed recovery profiles for every major SSD controller family.
Controller Family
Typical Failure
Recovery Approach
Phison E12 / E18
Controller locks after power interruption mid-cache-flush; drive drops out of BIOS or reports 0 bytes
PC-3000 Vendor Specific Command mode; translator rebuilt from TLC main area
Silicon Motion SM2262EN / SM2269XT
Locked read-reject state after SLC cache corruption; drive appears in BIOS but refuses all read/write commands
PC-3000 Technological Mode; FTL rebuilt from NAND spare area bytes
Samsung Elpis (980 Pro)
Firmware 0E health bug forces drive into read-only lock state as available spare block count degrades to zero
Board-level repair to keep original controller operational; imaging before terminal lock state
SandForce SF-2281
Permanent BSY (busy) state from firmware corruption; always-on AES-128 encryption makes chip-off non-viable
Specialized techniques to clear panic state and restore controller communication with encryption chain intact
InnoGrit IG5236
Firmware exception reverts drive to default silicon descriptor; reports 2MB or 2.1GB capacity
Component-level board repair to revive original controller; AES-256 encryption makes chip-off non-viable
Marvell 88SS1074
Firmware exception during garbage collection leaves controller in boot loop; drive appears intermittently in BIOS
ROM Boot Mode via test pad shorting; diagnostic loader injected into SRAM for stable NAND access
Phison E12 Sudden Death
The Phison PS5012-E12 controller (found in Corsair MP510, Sabrent Rocket, Inland Premium, and Team MP34) has a known failure mode where the controller locks up after a power loss event. The drive drops out of BIOS entirely or reports 0 bytes. The FTL stored in the SLC cache region gets corrupted because the controller was mid-write when power was cut. PC-3000 forces the E12 into Vendor Specific Command mode, bypasses the corrupted SLC cache, and rebuilds the translator from the TLC main area.
Silicon Motion SM2262EN Firmware Lock
The SM2262EN (used in HP EX950, ADATA SX8200 Pro original revision, and Kingston KC2000) is a DRAM-equipped NVMe controller. When the host system crashes during a write, the controller enters a locked state where it responds to SMART queries but refuses all read/write commands. The drive appears in BIOS with correct capacity but is inaccessible. We use PC-3000's Silicon Motion NVMe utility to clear the lock flag, inject a clean firmware loader, and rebuild the mapping tables from NAND spare area data.
Samsung 980 Pro 0E Error
Samsung 980 Pro drives with the Elpis controller develop a firmware bug that causes the 0E S.M.A.R.T. attribute (Media and Data Integrity Errors) to degrade rapidly, eventually forcing the drive into a read-only lock state. Samsung issued firmware patches, but drives that were not updated in time may require recovery. Drives still in the early degradation phase can sometimes be imaged before the terminal lock engages. Drives that have reached the terminal 0E failure state (available spare at 0%) are not currently recoverable through commercial firmware tools.
WD Blue SA510 / SN580 Firmware Panic
The WD Blue SA510 (SATA) and SN580 (NVMe) use SanDisk in-house controllers with proprietary firmware. Both models exhibit a failure pattern where the drive enters a firmware panic state after an unexpected power loss or sustained thermal stress. The drive stops enumerating entirely or reports 0 bytes. These controllers rely on Low-Density Parity-Check (LDPC) error correction with proprietary parameters in the controller's firmware. Because the LDPC decode parameters are controller-specific, desoldering the NAND and reading it with a flash reader produces data that cannot be decoded without the original controller's ECC engine. Recovery requires component-level board repair to resolve the electrical fault and revive the original controller so it can boot, decrypt, and serve its data natively.
SandForce SF-2281 Cryptographic Lockout
The SandForce SF-2281 controller (found in older Kingston HyperX, Corsair Force GT, and Intel 520 Series drives) performs always-on AES-128 encryption on all data written to NAND, even when the user has not set a password. (The SF-2281 was marketed as AES-256, but Intel confirmed in 2012 that the AES-256 implementation was broken at the silicon level; only AES-128 functions correctly.) The media encryption key is stored inside the controller IC itself. When the SF-2281 enters a permanent BSY (busy) state from firmware corruption or a power event, the controller stops responding to all commands. The NAND contains only ciphertext that cannot be decrypted without the original controller. Chip-off recovery is not viable. SF-2281 recovery requires specialized proprietary techniques to clear the panic state, restore controller communication, and image the drive while the encryption chain remains intact.
InnoGrit IG5236 "MN-5236" Firmware Panic
The InnoGrit IG5236 (codenamed Rainier) is an 8-channel Gen4 NVMe controller with onboard DRAM, found in the ADATA XPG Gammix S70 Blade, HP FX900 Pro, Acer Predator GM7000, and Mushkin Redline Vortex. When the controller encounters a defective NAND page or suffers a firmware exception during a sustained mixed workload, it drops its programmed identity and reverts to the silicon's default descriptor: "MN-5236" with a reported capacity of 2MB or 2.1GB. The drive may also trigger KERNEL_DATA_INPAGE_ERROR blue screens before going silent.
The IG5236 implements AES-256 hardware encryption, so desoldering the NAND from a panicked board yields only ciphertext. Recovery requires component-level board repair to resolve the electrical fault and revive the original controller. Because the encryption keys are bound to the controller silicon, the original IG5236 must remain operational throughout imaging. A separate failure pattern occurs after power loss: the controller enters a 30+ second recovery cycle on the next boot. If the user power-cycles during this window, the FTL corruption compounds and the drive becomes permanently undetectable without specialized board-level repair.
NVMe controller methodology32/43
NVMe Controller Recovery: How We Access Failed Gen3 and Gen4 Drives
NVMe controller recovery requires forcing the controller into diagnostic mode before it loads its corrupted firmware and triggers background garbage collection. Phison, Silicon Motion, and Samsung controllers each have a distinct diagnostic entry point and vendor-specific command set. Using the wrong entry sequence causes the controller to boot normally, compounding the corruption.
NVMe controller recovery requires forcing the controller into a diagnostic mode before it can load its corrupted firmware and execute background garbage collection. Each controller family (Phison, Silicon Motion, Samsung) has a distinct diagnostic entry point and vendor-specific command set. Using the wrong entry sequence causes the controller to proceed with normal boot, triggering the corruption that makes recovery harder.
Below is how we approach the three most common NVMe controller families using PC-3000 Portable III with its dedicated PCIe SSD adapter. A Phison E18 does not respond to the same vendor commands as a Samsung Elpis or a Silicon Motion SM2262EN.
Phison E18 and E12: Clearing Firmware Panics on Gen4 and Gen3 NVMe
The Phison PS5018-E18 (Corsair MP600 Pro, Sabrent Rocket 4 Plus, Seagate FireCuda 530, Kingston KC3000) is an 8-channel Gen4 controller with triple ARM Cortex-R5 cores and 4th-generation LDPC error correction. When thermal stress or power loss corrupts the FTL during a cache flush, all three cores fail to boot past the corrupted service area modules. The drive disappears from BIOS entirely.
Because PC-3000 does not currently support SRAM loader injection for the E18, recovery requires component-level microsoldering to revive the original controller. We use FLIR thermal imaging to locate failed PMICs and replace them under a Hakko microsoldering station, restoring power so the controller can boot and serve the data natively. Because the E18 implements AES-256 hardware encryption with TCG Opal 2.0, chip-off is not viable; the NAND contains only ciphertext. The entire recovery depends on keeping the original controller operational.
The older Phison PS5012-E12 (Gen3; Corsair MP510, Sabrent Rocket, Inland Premium) follows a similar workflow but with a simpler dual-core architecture and fewer firmware modules to reconstruct.
Silicon Motion SM2262EN and SM2269XT: Resolving Lock States on NVMe Drives
The SM2262EN (ADATA SX8200 Pro, HP EX950, Kingston KC2000) uses dual ARM Cortex-R5 cores with onboard DRAM. Both the SM2262EN and the DRAM-less SM2269XT (found in Solidigm P41 Plus, ADATA Legend 850) enter a strict locked state when NAND wear-leveling thresholds are exceeded or when an SLC cache flush is interrupted mid-operation. The drive appears in BIOS with correct model and capacity but rejects all read and write commands. See our Silicon Motion architecture guide for the full FTL reconstruction workflow across all SM22xx and SM22xxXT variants.
PC-3000's Silicon Motion NVMe utility pushes the controller into Technological Mode by uploading a specialized loader directly into the controller's RAM through vendor-specific PCIe commands. Once in Technological Mode, the controller halts all autonomous background operations and exposes raw NAND access. We read the spare area bytes from every NAND page to reconstruct the logical-to-physical address map that the corrupted FTL can no longer provide. ADATA's silent swap from SM2262EN to the slower SM2262G in later SX8200 Pro production runs means controller identification is mandatory before selecting the correct recovery module.
The SM2269XT stores its mapping tables in Host Memory Buffer rather than onboard DRAM, making it more vulnerable to FTL corruption from system crashes. The same Technological Mode workflow applies, but the corrupted state is more severe because no local DRAM copy of the translator survives the power loss.
Samsung Elpis and Phoenix: Bypassing Firmware Lockouts on Samsung NVMe
The Samsung Elpis (980 Pro, PM9A1 OEM) is fabricated on Samsung's 8nm process, while the older Samsung Phoenix (970 EVO, 970 EVO Plus) uses a 14nm process. Both are Samsung's proprietary NVMe controllers with hardware-bound AES-256 encryption where the media encryption key is fused into the controller silicon. Desoldering the NAND from an Elpis or Phoenix board yields only ciphertext; there is no external key to apply.
The Elpis controller's known 0E firmware bug (firmware 3B2QGXA7, primarily on 2TB models) forces the drive into a read-only lock state as the available spare block count degrades to zero. Samsung released a patch (5B2QGXA7), but drives that were not updated in time may enter a terminal lock. Drives caught in the early degradation phase can sometimes be imaged before the terminal state engages. Once the drive reaches the terminal 0E failure state, data extraction is not currently possible through commercial recovery tools. The controller must remain alive throughout any imaging attempt; if it dies, the encryption keys die with it.
Phoenix controller failures on the 970 EVO typically present as complete non-detection after a power event. PC-3000 forces the Phoenix into Factory Access Mode, a diagnostic state that bypasses the normal firmware boot sequence and allows direct NAND reads through the controller's intact decryption pipeline. The drive is imaged in this state without ever loading the corrupted production firmware.
Sata controller methodology33/43
SATA SSD Controller Recovery: Phison, Silicon Motion, and Marvell Workflows
SATA SSD recovery uses PC-3000 SSD over a standard SATA port to force the controller into diagnostic mode, halting background operations and exposing raw NAND access. Phison, Silicon Motion, and Marvell controllers each require distinct ATA Vendor Specific Command sequences. Using the wrong sequence or cycling power before safe mode is confirmed risks triggering garbage collection, compounding the corruption.
SATA SSD recovery uses PC-3000 SSD over a standard SATA port to force the controller into a diagnostic mode that halts background operations and exposes raw NAND access. Phison, Silicon Motion, and Marvell controllers each require distinct ATA Vendor Specific Command sequences to enter that mode. Using the wrong sequence or cycling power before safe mode is confirmed risks triggering garbage collection on worn cells, compounding the corruption.
Unlike NVMe controllers that communicate over PCIe lanes, SATA controllers use the AHCI protocol, which simplifies the hardware interface but does not simplify the firmware repair. Below is how we approach the three most common SATA controller families.
The Phison PS3111-S11 (Kingston A400, Patriot Burst, PNY CS900) is a single-core SATA controller that stores its flash translation layer in a dedicated service area region across the NAND. When power cuts during a service area write, the translator tables corrupt. The drive reports as "SATAFIRM S11" or "PATA SSD" with 0 bytes capacity because the controller reverts to its silicon default identity.
PC-3000 SSD connects to the drive over SATA and uses the Phison SSD Utility to issue ATA Vendor Specific Commands that place the controller into Safe Mode. In Safe Mode, the PS3111 halts all autonomous operations and exposes raw NAND access. The utility scans every NAND chip for surviving service area copies; Phison controllers maintain two redundant copies of the translator (called "Map Table A" and "Map Table B"). If either copy is intact, the utility loads it and the drive re-enumerates with correct capacity. If both copies are damaged, PC-3000 rebuilds the translator by reading the spare area bytes from each NAND page and reconstructing the logical-to-physical address map from scratch. This full rebuild is the most time-intensive scenario and falls into the $600–$900 firmware recovery tier.
The PS3111 does not implement hardware-level encryption by default, so chip-off NAND extraction remains a viable last resort if the controller silicon is physically destroyed.
Silicon Motion SM2258 and SM2259H: Partial Page Read and FTL Recovery
The Silicon Motion SM2258 (ADATA SU800, Team CX2), SM2258XT (Crucial BX500, ADATA SU650), and SM2259H (Crucial MX500) are SATA controllers with 32-bit RISC processors. The SM2258 and SM2259H include onboard DRAM for FTL caching; the SM2258XT is DRAM-less and pages its FTL mapping tables directly to NAND flash. When these controllers encounter an unrecoverable ECC error in the service area during boot, they enter a locked state where the drive responds to SMART queries but refuses all read/write commands. The drive appears in BIOS with correct model and capacity yet remains inaccessible.
PC-3000 SSD's Silicon Motion SATA utility pushes the controller into Technological Mode by issuing a specific ATA Vendor Specific Command sequence through the SATA port. Once in Technological Mode, all background processes stop and raw NAND access opens. For drives with degraded NAND where standard reads return ECC failures, the utility performs partial page reads: it reads each NAND page at multiple voltage reference points and selects the read that produces the lowest raw bit error rate. This is distinct from PC-3000's thermal-assisted reads used for NVMe; partial page reads adjust the electrical sensing margins digitally rather than using physical temperature changes. The SM2258 and SM2259H (DRAM-equipped) typically recover faster because a local DRAM copy of the translator often survives a power event. The SM2258XT (DRAM-less) lacks this buffer, and its FTL corruption is more severe after a system crash. Our Silicon Motion architecture hub covers the full SM2258/SM2259/SM2262/SM2269 family, including DRAM vs. DRAM-less FTL reconstruction differences.
The Marvell 88SS1074 (Crucial MX300, WD Blue 3D) is Marvell's mainstream SATA controller with a proprietary firmware structure. The 88SS1074 uses a dual-core ARM architecture with Marvell's NANDEdge LDPC error correction engine. The most common failure pattern is a firmware exception during a background media management operation (garbage collection or wear leveling), which leaves the controller in a boot loop: it repeatedly attempts to load its firmware, fails, and resets. The drive appears intermittently in BIOS or drops out after a few seconds of enumeration.
PC-3000 SSD's Marvell utility accesses the controller through a factory diagnostic interface. On the 88SS1074, the entry point is a specific test pad on the PCB that must be shorted to ground during power-on to force the controller into ROM Boot Mode. In ROM Boot Mode, the controller does not load any firmware from NAND; it waits for external commands over the SATA interface. PC-3000 uploads a diagnostic loader into the controller's internal SRAM, which provides stable NAND access without executing the corrupted production firmware. The utility then reconstructs the flash translation layer from the NAND spare area and images the drive.
The 88SS1074 supports AES-256 encryption, though many consumer drives ship with it disabled at the firmware level. When encryption is active, chip-off produces ciphertext and recovery depends entirely on reviving the original controller through board-level repair.
Power loss vulnerability34/43
Why Do Consumer SSDs Fail Without Warning?
Consumer NVMe and SATA SSDs omit the tantalum supercapacitors found in enterprise drives. A power cut mid-write leaves the flash translation layer (FTL) partially written, corrupting the logical-to-physical address map. On the next power cycle, the drive reports 0 bytes or fails to enumerate entirely. The data is still in the NAND; the map that points to it is broken.
Consumer NVMe and SATA SSDs omit the tantalum supercapacitors found in enterprise drives. Without those supercapacitors, a power cut mid-write leaves the flash translation layer (FTL) partially written, corrupting the logical-to-physical address map.
Those supercapacitors provide 10 to 50 milliseconds of backup power, long enough for the controller to flush its DRAM cache and finalize the FTL to NAND.
On the next power cycle, the controller cannot locate any data. The drive reports 0 bytes, shows the wrong model string, or fails to enumerate entirely. The data is still in the NAND; the map that points to it is broken.
DRAM-less Drives Are More Vulnerable
Budget NVMe controllers like the Phison E21T, Silicon Motion SM2263XT, and Maxio MAP1602 use Host Memory Buffer (HMB) instead of onboard DRAM. The FTL mapping tables live in your computer's system RAM, allocated by the NVMe driver.
A system crash, BSOD, or hard reboot deallocates that memory before the controller can write its state back to NAND. The result is identical to a power loss: corrupted FTL, unreadable service area, and a drive that appears dead. DRAM-equipped controllers like the Phison E18 or Samsung Elpis keep a local copy of the mapping table in their onboard SRAM/DRAM, which provides a fractional-second buffer during power transitions. This does not make them immune, but it reduces the window of vulnerability from milliseconds to microseconds.
SLC Cache Flush Interruption
Modern TLC and QLC SSDs use a pseudo-SLC write cache: incoming data lands in NAND cells programmed to a single bit per cell (fast, high endurance), then the controller folds that data into TLC/QLC pages (three or four bits per cell) during idle periods. If power drops during this folding operation, the data exists in two conflicting states across different physical NAND pages. The FTL metadata no longer matches the actual NAND contents.
On Phison controllers, this manifests as a Vendor Specific Command (VSC) lockout where the controller refuses all read/write operations until the inconsistency is resolved. PC-3000 resolves this by reading raw NAND metadata from both the SLC cache region and the TLC/QLC main storage, identifying which copy is authoritative, and rebuilding the translator from scratch.
Windows 11 24H2 and Host Memory Buffer Crashes
Windows 11 version 24H2 changed how the operating system allocates Host Memory Buffer (HMB) for NVMe SSDs. The updated driver expanded the default HMB allocation from 64MB to as much as 200MB. On certain DRAM-less controllers whose firmware expects the smaller allocation, this larger memory footprint causes firmware instability under sustained I/O.
The primary victims are WD Black SN770 and WD Blue SN580 drives, whose proprietary in-house controllers are hardcoded for a 64MB HMB ceiling. Other DRAM-less controllers (Phison E21T, Silicon Motion SM2263XT) have shown isolated issues, though the WD models account for the majority of confirmed failures. Symptoms range from repeated BSOD (KERNEL_DATA_INPAGE_ERROR, CRITICAL_PROCESS_DIED) to the drive vanishing from BIOS entirely after the update.
The NAND flash and your data are intact in these cases. The controller's FTL metadata corrupts because the host OS deallocates the expanded HMB region mid-operation, leaving the mapping tables in a partially written state. Rolling back the Windows update can prevent further damage but cannot restore a corrupted FTL. Recovery requires bypassing the host interface entirely and accessing the controller through its factory diagnostic mode to extract data before the corrupted mapping tables are overwritten by further boot attempts. If your DRAM-less NVMe SSD stopped working after a Windows update, do not reformat or reinstall the OS on the same drive; send it for evaluation.
Unpowered Storage and Charge Leakage
NAND flash cells store data as trapped electrical charge on a floating gate (planar NAND) or a charge trap layer (3D NAND). That charge leaks over time. The JEDEC JESD218B specification defines client SSD data retention as one year at 30 degrees Celsius for a drive at end of rated endurance.
A drive stored in a hot environment, an attic, a parked car, or a non-climate-controlled storage unit, leaks charge faster. Worn cells that have consumed most of their rated program/erase cycles leak faster still. As charge leaks, the voltage distributions for each programmed state shift and overlap. QLC cells, which encode four bits across sixteen voltage levels, have the tightest margins and degrade first. TLC cells with three bits across eight levels follow.
When voltage distributions overlap beyond the controller's ECC correction threshold (LDPC on modern drives, BCH on older ones), pages become unreadable through the normal interface. PC-3000's Read Retry feature applies shifted reference voltages during reads, effectively recalibrating the sensing margins to account for the charge drift. For drives with severe retention loss, controlled heating of the NAND package temporarily improves charge distribution separation, allowing marginal pages to be read before the thermal energy dissipates.
Practical takeaway: if a failed SSD has been sitting unpowered in a drawer for months, send it to a lab sooner rather than later. Every week of unpowered storage at room temperature narrows the voltage margins further. A drive that is recoverable today may not be recoverable in six months.
Manufacturers35/43
Which SSD Manufacturers Can Be Recovered?
We recover data from Samsung, Crucial, Western Digital, Intel, ADATA, SK Hynix, Kioxia, Corsair, Kingston, Seagate, and Apple proprietary SSDs. Each manufacturer uses different controller architectures, firmware structures, and encryption implementations that require manufacturer-specific PC-3000 recovery modules and vendor command sequences.
We recover data from Samsung, Crucial, Western Digital, Intel, ADATA, SK Hynix, Kioxia, Corsair, Kingston, Seagate, and Apple proprietary SSDs. Each manufacturer uses different controller architectures, firmware structures, and encryption implementations that require manufacturer-specific PC-3000 recovery modules and vendor command sequences.
Samsung
870 EVO (SATA), 970/980/990 NVMe families. Proprietary controllers (Phoenix/Elpis/Pascal) and default encryption are common. The 990 Pro firmware degradation bug is a frequent case; controller repair and safe imaging for all Samsung models.
Recovery approach depends on the controller chip inside your SSD. Phison, Silicon Motion, Samsung, and Marvell controllers each enter diagnostic mode through different vendor command sequences and require distinct PC-3000 modules. Using the wrong entry sequence risks triggering garbage collection, compounding the data loss.
Recovery approach depends on the controller chip inside your SSD. We track failure modes for every major controller family.
Each SSD controller family uses a different firmware structure, flash translation layer layout, and diagnostic entry point. Silicon Motion DRAM-less controllers page their FTL to NAND flash and are more vulnerable to power-loss corruption than DRAM-equipped designs. SandForce SF-2281 controllers use always-on AES-128 encryption, making chip-off non-viable. These guides cover recovery methodology for each ecosystem.
Each SSD controller family uses a different firmware structure, FTL layout, and diagnostic entry point. These architecture guides cover recovery methodology for current and legacy controller ecosystems, from Silicon Motion DRAM-less designs to SandForce always-on encryption and monolithic NAND packaging.
These guides cover specific SSD failure scenarios, explaining what the symptom means at the hardware level and what recovery path applies. TRIM erasure, capacity reporting errors, NVMe vs SATA protocol differences, and warranty considerations each have distinct technical causes and outcomes.
Specific failure scenarios with technical explanations and what to do next.
No. SSDs use non-volatile NAND flash that retains data without power, but three mechanisms actively erase stored data: the TRIM command zeroes deleted blocks within seconds, garbage collection consolidates and erases stale pages in the background, and unpowered NAND cells lose charge over one to five years depending on TLC or QLC density.
No. SSDs use non-volatile NAND flash that retains data without power, but three mechanisms actively erase stored data: the TRIM command zeroes deleted blocks within seconds, garbage collection consolidates and erases stale pages in the background, and unpowered NAND cells lose charge over one to five years depending on TLC or QLC density.
TRIM Command
When the operating system deletes a file, it sends a TRIM command telling the controller to mark those logical blocks as invalid. The controller then zeroes the underlying NAND pages during idle time. Once TRIM executes, the data is permanently gone; neither software nor lab work can retrieve zeroed blocks.
Garbage Collection
The controller continuously consolidates valid pages from partially used NAND blocks, copies them to clean blocks, and erases the originals. This background process reclaims space for new writes but destroys stale data in the process. Garbage collection runs autonomously and cannot be paused by the user.
Charge Decay
NAND cells store data as trapped electrons. Without power, those electrons gradually leak through the oxide layer. JEDEC JESD218B defines client SSD data retention as one year at 30°C. TLC cells (3 bits per cell) and QLC cells (4 bits per cell) have narrower voltage margins and degrade faster than SLC or MLC. An unpowered QLC drive in a warm environment can begin losing data within months.
Faqs40/43
SSD Data Recovery FAQs
Can you recover data from a dead SSD?
Yes, if the NAND flash is intact. A dead SSD means the controller, power management IC, or firmware has failed. We repair the failed component so the controller can read the NAND again, then image the drive through PC-3000.
How much does SSD data recovery cost?
SATA SSD recovery costs $200 to $1,500 across 5 published tiers. NVMe SSD recovery costs $200 to $2,500. Simple copies are $200. File system recovery starts at $250. Circuit board repair costs $450 to $600 (SATA) or $600 to $900 (NVMe). Firmware recovery costs $600 to $900 (SATA) or $900 to $1,200 (NVMe). NAND swap costs $1,200 to $1,500 (SATA) or $1,200 to $2,500 (NVMe). Free evaluation, firm quote, no data no fee.
How much does NVMe data recovery cost?
NVMe SSD data recovery costs $200 to $2,500 depending on failure type. Simple copies cost $200. File system recovery starts at $250. Circuit board repair costs $600 to $900. Firmware corruption requiring PC-3000 NVMe module access runs $900 to $1,200. NAND swap onto a donor PCB costs $1,200 to $2,500. NVMe NAND swap costs more than SATA because NVMe controllers use tighter firmware-to-silicon binding and donor matching is more complex.
Is SSD data recovery harder than hard drive recovery?
The failure modes are different. Hard drives fail mechanically: head crashes, seized motors, platter scratches. SSDs fail electronically: controller death, firmware corruption, NAND degradation, encryption lockout. SSD recovery requires microsoldering and firmware-level tools instead of clean rooms and head swaps.
Can encrypted SSDs be recovered?
Yes, by repairing the original controller or security chip so the drive decrypts through its own hardware. Desoldering encrypted NAND without the media encryption key produces only ciphertext. The decryption chain must remain intact.
What's your success rate for SSD recovery?
We do not publish a made-up percentage. Every drive is different. We evaluate yours for free and give a straight answer on whether recovery is realistic before you pay anything.
Why is my SSD showing 0 bytes?
A 0-byte capacity reading means the controller lost its firmware translation layer (FTL). The NAND still holds your data, but the controller cannot locate it. We rebuild the translator tables using PC-3000's SSD utility to restore correct capacity and file system access.
Why does my SSD show up as SATAFIRM S11?
SATAFIRM S11 is a generic firmware string that appears when the controller loses its service area data. The drive reverts to a factory-default identity because it cannot load the modules that define its model name, capacity, and flash translation map. PC-3000 rebuilds those modules and restores normal operation.
Can deleted files be recovered from an SSD?
Only if TRIM has not executed. When TRIM runs, the controller logically unmaps the deleted blocks (returning zeros to the OS via DRAT/DZAT), with electrical erasure happening later during garbage collection. Once a TRIM command is fully processed, the controller intentionally blocks access to the deleted files through standard interfaces. If the drive died from a hardware failure before the controller could run TRIM, the deleted data is still on the NAND and recoverable.
Is SSD data permanent?
No. SSDs use non-volatile NAND flash that retains data without power, but three mechanisms actively erase stored data. The TRIM command zeroes deleted blocks within seconds of file deletion. Garbage collection consolidates and erases stale pages in the background. Unpowered NAND cells lose charge over one to five years depending on cell density (TLC vs QLC). JEDEC JESD218B defines client SSD data retention as one year at 30 degrees Celsius.
Does the freezer trick work on SSDs?
No. The consumer 'freezer trick' was a myth for hard drives with stiction. For SSDs, uncontrolled condensation from a household freezer can short components and destroy the drive. However, professional labs do use precise, controlled thermal manipulation (both targeted heating and freezing) to alter NAND threshold voltages and improve readability on degraded cells. This requires exact temperature targets and real-time monitoring through PC-3000 to catch shifts in sensing margins.
How long does SSD data recovery take?
Simple data copies take 3 to 5 business days. File system recovery takes 2 to 4 weeks. Firmware reconstruction and circuit board repair take 3 to 6 weeks. NAND swap requiring donor sourcing takes 4 to 8 weeks. Apple T2/M-series and other hardware-encrypted drives require board repair instead of chip-off. A +$100 rush fee moves your drive to the front of the queue regardless of tier.
Can data be recovered from an SSD not detected in BIOS?
Yes. A drive invisible to BIOS has a dead controller, blown power management IC, or severed PCIe/SATA connection. We identify the failed component with thermal imaging and a bench power supply, repair it, and image the drive once the controller responds.
What causes SSD controller failure?
Power surges, voltage regulator failures on the host motherboard, and accumulated thermal stress are the most common causes. The controller IC or its PMIC shorts, and the drive goes dead. The NAND retains data because flash cells hold charge without power, though this charge will gradually leak over many months.
Can you recover data from a water-damaged SSD?
Yes. Liquid corrodes solder joints and shorts components, but NAND flash cells are sealed BGA packages that survive liquid contact. We ultrasonically clean the PCB, replace shorted components, and rebuild corroded traces before applying power.
Do you recover data from Apple T2 or M-series Macs?
Yes. Apple solders NAND directly to the logic board and ties the encryption key to the T2 or M-series Secure Enclave. No commercially viable method exists to extract the key; the board must be repaired at the component level so the Secure Enclave decrypts in place. We do this work in-house.
Is chip-off recovery possible on encrypted SSDs?
Chip-off on an encrypted drive produces only ciphertext. This includes Apple T2 and M-series Macs, where AES-256 keys are bound to the Secure Enclave and never leave the SoC. Without the media encryption key stored in the original controller or security chip, desoldered NAND is unreadable. The only viable path is repairing the original board so the drive decrypts through its own hardware.
Can I recover SSD data myself with software?
Only if your operating system detects the drive with its correct capacity. Software tools scan the file system through the controller. If the controller is dead and the drive does not enumerate, no software can reach the NAND. That requires hardware-level repair.
What is the difference between logical and physical SSD failure?
We classify SSD failures into three categories. Logical failure means the drive is 100% healthy, but the file system is corrupt or data was deleted. Firmware failure means the physical electronics work, but the controller's internal map (translator) or service area is corrupted, requiring PC-3000 to rebuild. Physical failure means a hardware component is dead (shorted PMIC, cracked solder joints, or dead controller), requiring microsoldering to fix.
Should I keep powering on a failing SSD?
Stop. A shorted controller or PMIC draws excessive current when powered, and that heat damages adjacent NAND packages. Each power cycle also risks the controller overwriting corrupted service area data, which makes firmware reconstruction harder.
My laptop SSD failed. How do I get my data?
Remove the SSD from the laptop (M.2 drives slide out after removing one screw; 2.5-inch SATA drives unplug from a connector or caddy). Test it in another system or external enclosure. If it does not appear in BIOS on any system, the controller or PMIC has failed and you need professional recovery. Do not attempt to reinstall the operating system on the same drive. Ship the bare SSD to our Austin lab for a free evaluation.
My portable SSD stopped working. What happened?
Portable SSDs (Samsung T5/T7, WD My Passport SSD, SanDisk Extreme) contain an internal NVMe or SATA drive connected through a USB bridge chip. The bridge chip is the most common failure point: cold solder joints crack from thermal cycling during file transfers. When the bridge fails, the host sees no device or a blank disk. We open the enclosure, bypass the bridge, and read the internal SSD directly through PC-3000. If the bridge encrypted the data, we repair the bridge instead of bypassing it.
Can you recover a Samsung 970 or 980 EVO/Pro?
Yes. Samsung Phoenix and Elpis controllers use hardware encryption by default, so chip-off yields ciphertext. Because the encryption keys are tied to the unique silicon of the original controller, you cannot simply swap the main controller IC. We perform physical component repair (replacing shorted PMICs or repairing power rails) to revive the original board so the drive initializes and we can image the data through the controller's native decryption pipeline. For drives with fatal firmware panics like the 980 PRO 0E error, board-level repair of the power delivery is the primary recovery path.
Can an SSD be repaired?
SSDs have no moving parts to repair in the traditional sense. When we say SSD repair, we mean component-level board work: replacing blown capacitors, shorted PMICs, failed voltage regulators, or reflashing corrupted firmware through JTAG/SPI. The goal is to get the original controller functional enough to image the data. Once the data is extracted, the original drive is not reused. We perform all board-level SSD repair in-house at our Austin lab using Hakko microsoldering stations and FLIR thermal imaging to locate failed components.
What determines the cost of SSD data recovery?
The cost depends on which component failed and what labor the fix requires. A simple data copy from a functional drive costs $200 because the controller works and we just transfer files. File system corruption starts at $250; the controller is healthy but the partition table or directory structure needs rebuilding. Circuit board repair costs $450 to $600 for SATA SSDs or $600 to $900 for NVMe, covering shorted PMICs, voltage regulators, or capacitors replaced under a Hakko microsoldering station using FLIR thermal imaging. Firmware reconstruction costs $600 to $900 (SATA) or $900 to $1,200 (NVMe) because the controller is stuck in a panic state; we must short specific pins to force diagnostic mode, upload a microcode loader into RAM via PC-3000, and rebuild the flash translation layer from raw NAND metadata. NAND swap costs $1,200 to $1,500 (SATA) or $1,200 to $2,500 (NVMe), involving desoldering BGA packages and transplanting them to a donor PCB. Every case starts with a free evaluation and a firm quote.
Is SSD repair the same as SSD data recovery?
No. When we perform SSD repair in a data recovery context, we are doing temporary component-level board work strictly to extract your files. We replace a shorted PMIC, reflow a cracked solder joint, or rebuild a burnt trace so the original controller can power on and serve data through PC-3000 Data Extractor. Once the image is complete, the repaired drive is retired. A physically repaired SSD should not be reused as a production drive; the underlying failure that killed it (NAND wear, thermal damage, voltage regulator degradation) means the drive will fail again. Software blogs recommend running chkdsk or diskpart to 'repair' a failing SSD. On a drive with degraded NAND, those tools thrash the remaining healthy flash cells and can trigger a full controller panic, making recovery harder or impossible. SSD repair for data recovery means hardware work at the board level, not software commands in a terminal.
Will a firmware update fix a dead SSD?
No. Do not flash OEM firmware tools (Phison Toolbox, Samsung Magician, WD Dashboard) on a failing SSD. A firmware update reinitializes the NAND and resets the flash translation layer (FTL), permanently destroying the logical-to-physical mapping of your existing files. The drive may appear functional again after the flash, but your data mapping is gone. Firmware updates are preventative maintenance for healthy drives, not a data recovery tool. If your SSD shows 0 bytes, SATAFIRM S11, or is not detected, send it to a lab with PC-3000 capability. We rebuild the corrupted translator without reinitializing the NAND, preserving the data mapping intact.
Does SSD data recovery require a cleanroom?
No. Cleanrooms (ISO-5 / Class 100 particulate control) exist for mechanical hard drive recovery, where microscopic airborne debris can crash read/write heads into spinning platters. SSDs have no moving parts and no exposed platters. SSD recovery requires an ESD-safe workstation, Hakko microsoldering stations for replacing shorted PMICs and failed controllers, FLIR thermal imaging for locating shorts, and PC-3000 for firmware-level repair. Labs that market cleanroom capability for SSD work are applying a hard drive concept to solid-state media.
Is NVMe SSD recovery different from SATA SSD recovery?
The physical failure modes are similar (controller death, firmware corruption, NAND degradation), but the diagnostic interface is different. SATA SSDs communicate over AHCI and connect to PC-3000 through a standard SATA port. NVMe SSDs communicate over PCIe and require PC-3000 Portable III with a dedicated PCIe SSD adapter. NVMe controllers also tend to implement stricter hardware encryption (AES-256 with controller-fused keys), which makes chip-off recovery less viable than on older SATA drives. SATA SSD recovery costs $200 to $1,500. NVMe SSD recovery costs $200 to $2,500, with the higher ceiling reflecting more complex donor matching and firmware binding at the NAND swap tier.
Can deleted files be recovered from an external USB SSD?
Possibly. On internal NVMe and SATA SSDs, the operating system sends a TRIM/Deallocate command that logically unmaps deleted blocks within seconds. External USB SSDs often do not execute TRIM in practice because of OS-level restrictions: Windows does not send TRIM to exFAT volumes, macOS blocks USB TRIM by default, and many older or budget USB bridge chips lack UASP support for SCSI UNMAP passthrough. If you deleted a file from an external USB SSD and powered it off immediately, the data may still be on the NAND because TRIM never executed. We evaluate external SSDs for free. If the bridge chip is functioning, logical recovery is attempted first. If the bridge chip failed, we bypass it and read the internal SSD directly through PC-3000.
What does MN-5236 mean on my SSD?
MN-5236 is the default silicon identifier for the InnoGrit IG5236 (Rainier) NVMe controller. When the controller suffers a firmware panic from a defective NAND page or power loss event, it drops its programmed identity and reverts to this factory descriptor with a capacity of 2MB or 2.1GB. Drives affected include the ADATA XPG Gammix S70 Blade, HP FX900 Pro, and Acer Predator GM7000. The NAND data is intact but inaccessible because the FTL mapping is corrupted. The IG5236 uses AES-256 hardware encryption, so the original controller must remain operational. We attempt component-level board repair to stabilize the controller and restore access; send the drive for a free evaluation so we can determine whether recovery is feasible for your specific failure.
Did the Windows 11 24H2 update kill my SSD?
Windows 11 version 24H2 expanded the default Host Memory Buffer (HMB) allocation for NVMe SSDs from 64MB to as much as 200MB. On certain DRAM-less drives whose firmware expects the smaller allocation, particularly the WD Black SN770 and WD Blue SN580, this overallocation causes a host-side driver conflict that triggers BSOD loops. Your NAND flash and the drive's internal FTL are intact; this is not a hardware failure. Do not reformat the drive or reinstall the OS on it. You can resolve this yourself by booting into Windows Safe Mode and setting the registry key HKLM\SYSTEM\CurrentControlSet\Control\StorPort\HmbAllocationPolicy to 2, which limits HMB to 64MB, or by applying the latest WD firmware update from a secondary system. If you have already reformatted or reinstalled and lost data, contact us for a free evaluation.
Does running CHKDSK fix a failing SSD?
No. CHKDSK /f /r forces intensive sector-by-sector read and write operations across the entire drive. On an SSD with degraded NAND, this thrashes the remaining healthy flash cells and overwrites file system metadata that professional recovery tools need for a clean extraction. If your SSD is struggling with degraded NAND, CHKDSK attempts to force corrective file system entries back to the drive; these aggressive write commands can overwhelm a failing controller and push it into total hardware lockout. CHKDSK is designed for healthy file systems with minor corruption, not for failing hardware. If your SSD shows 0 bytes, reports SATAFIRM S11, or is not detected in BIOS, the failure is electronic, not logical. SSD repair for data recovery means board-level component work and firmware reconstruction through PC-3000, not running a Windows command prompt utility.
Does the SSD power cycle method work?
Sometimes, but only for a narrow class of firmware-level failures. The method involves connecting the SSD to SATA power without the data cable for 30 minutes, allowing the controller to run internal recovery routines without host interference. This can work when a power loss corrupted the flash translation layer and the controller's backup tables are still intact. It fails when the underlying problem is a shorted PMIC, dead controller IC, or degraded NAND, which account for the majority of SSD failures we receive. Leaving a drive with a shorted component powered on for 30 minutes generates excess heat that can damage adjacent NAND packages. If the power cycle does not restore the drive within one attempt, stop. Repeated power cycling on a hardware-failed SSD forces the controller into repeated boot loops that can further corrupt the flash translation layer. Send it for a free evaluation instead.
How do I know which SSD data recovery price tier applies to my drive?
Connect the SSD to another computer or a known-working USB adapter and check BIOS. If the drive appears with the correct model and capacity, the controller is alive; you likely need a $200 data copy or $250+ file system rebuild. If it shows wrong capacity, 0 bytes, or SATAFIRM S11, the firmware translation layer is corrupt; firmware reconstruction runs $600 to $900 on SATA SSDs and $900 to $1,200 on NVMe drives. If the drive is invisible to BIOS or gets hot within seconds of connecting, a power management IC or controller component has shorted; circuit board SSD repair starts at $450 for SATA and $600 for NVMe. We confirm the exact tier during a free evaluation before any paid work begins.
What board-level repairs fix a dead SSD?
SSD repair for data recovery targets the specific failed component. For a shorted power management IC, we use FLIR thermal imaging to locate the hot spot, desolder the failed part, and replace it under a Hakko microsoldering station. For a controller stuck in firmware panic, we short diagnostic pins on the PCB to force ROM mode, then upload a working firmware loader via PC-3000 into the controller's SRAM to bypass the corrupted boot sequence. For corroded traces from liquid damage, we rebuild the electrical path with jumper wires under magnification. Each method restores enough controller functionality to image the NAND through PC-3000 Data Extractor. The drive is retired after extraction; board-level SSD repair is temporary stabilization for data extraction, not permanent refurbishment.
Does the SSD controller type affect the recovery cost?
Yes. The controller determines recovery complexity because each controller family requires a different PC-3000 module and diagnostic entry method. Phison PS3111 drives with SATAFIRM S11 corruption require translator rebuilds through the Phison SSD utility, which is firmware-level work ($600 to $900). Silicon Motion SM2258/SM2259H drives with locked FTL require Technological Mode access and partial page reads ($600 to $900). Marvell 88SS1074 drives with firmware corruption need ROM Boot Mode entry and a full service area rebuild ($600 to $900). Samsung and WD proprietary controllers with hardware encryption add complexity because the original controller must stay alive throughout imaging. A simple firmware rebuild costs less than a case requiring component-level board repair plus firmware reconstruction.
What if another lab already attempted SSD recovery and failed?
We regularly receive SSDs that other services could not recover. Previous attempts do not automatically disqualify recovery, though success depends on what was done. If the previous lab only ran software on a hardware-failed drive, recovery is usually still possible. If they physically damaged the PCB or NAND chips during a failed board-level repair, recovery becomes more complex and may require NAND transplant to a donor board. Bring any documentation from the prior attempt. We evaluate the drive for free and give you a straight assessment of what is recoverable.
Why did my files disappear after running CHKDSK on my SSD?
CHKDSK treats ECC read timeouts from degraded NAND cells as logical file system corruption. To 'fix' the volume, it deletes corrupted directory indexes, strips orphaned files of their original paths, and rewrites the Master File Table (MFT), destroying the original directory structure. The files are still on the NAND, but the mapping that connects file names to physical flash addresses has been overwritten. Recovery after CHKDSK requires PC-3000 to reconstruct the translator from raw NAND metadata and file carving tools to reassemble fragmented data. This is more labor-intensive and costlier than recovering from the original firmware failure alone. Do not run CHKDSK on a failing SSD.
Why does my SATA SSD recovery approach differ from NVMe recovery?
SATA SSDs communicate over the AHCI protocol through a standard SATA port, while NVMe drives use PCIe lanes and require a dedicated PCIe adapter on PC-3000 Portable III. SATA controllers (Phison PS3111, Silicon Motion SM2258/SM2259H, Marvell 88SS1074) often lack hardware encryption, which means chip-off NAND extraction remains viable as a last resort. NVMe controllers (Phison E18, Samsung Elpis, Silicon Motion SM2262EN) almost universally implement AES-256 with controller-fused keys, making chip-off useless. SATA SSD recovery costs $200 to $1,500; NVMe recovery costs $200 to $2,500. The diagnostic interface, firmware modules, and recovery options differ by protocol.
Evaluation form41/43
What to do before shipping
These steps protect the NAND and reduce the risk of further damage before we receive the drive.
Do NOT:
Stop using the drive immediately; don't write new data
Do not open the SSD; leave any corrosion/contamination to us
Do:
Pack in an anti-static bag with padding; include your contact info
Use tracked shipping to our Austin lab; request signature on delivery
We serve all 50 states with secure mail-in data recovery. Ship your failed drive to our Austin lab using our free shipping kit, and we'll diagnose it within 24-48 hours. No geographic limitations—we've successfully recovered data for customers from Alaska to Florida.
Technical claims and specifications on this page are sourced from public documentation. Verify independently.
ACE Lab PC-3000 Portable III: Manufacturer documentation for SSD recovery capabilities, including PCIe/NVMe adapter support, vendor-specific safe mode commands, firmware loader injection, and NAND flash direct reading. This is the primary diagnostic and imaging tool used in our lab.
Magnuson-Moss Warranty Act (15 U.S.C. §2302): Federal law establishing that manufacturers cannot void a warranty for using an independent repair provider. Relevant to customers concerned about warranty status after third-party data recovery.
Competitor pricing ranges are based on published customer reports and competitor pricing pages as of early 2025. DriveSavers, Ontrack, and Secure Data figures reflect publicly available quote ranges, not internal data.
4.9 stars across 1837+ Google reviews. Founded in 2008 by Louis Rossmann. Single location at 2410 San Antonio St, Austin TX 78705. No franchises. No outsourcing.
Published pricing
SATA SSD data recovery runs $200–$1,500. Every case receives a firm quote after a free evaluation. No diagnostic fees.
No data, no recovery fee
If we can't recover your data, you pay nothing. That guarantee applies to every SSD case. Full guarantee terms.
Recovery equipment
PC-3000 SSD for controller firmware reconstruction. Hakko FM-2032 microsoldering stations for component-level board repair. FLIR thermal cameras for fault isolation under controlled voltage injection.
Ready to get your data back?
Free evaluation. No data = no charge. Mail-in from anywhere in the U.S.
“I consulted Rossmann Repair Group for data recovery services. A new IT client was recently referred to me, because his main computer crashed and his business database went offline as a result. It turned out that the computer crashed because its main storage, a 500 GB Solid State Hybrid Drive, failed. That part was easy - replace it with a new 1 TB SSD and reinstall Windows along with the software he uses. However, the data on the SSHD was critical and would have meant serious problems for his business if he didn't get that back.
That's where Rossmann Repair Group came in.”
“Went in to ask if they could retrieve my SSD from my Surface Pro 4 for me and they gave me a good rate, but was still a bit too expensive for me. So, they let me use their equipment for about an hour until I was able to fish it out myself and recover my data.”
“Amazing place! Super friendly and knowledgeable people! I have a LaCie Rugged Pro SSD that stopped mounting. It turns out the enclosure was the problem, not the SSD itself. They helped diagnose the issue and offered solutions—all free of charge. Great experience, and I highly recommend them! 😊”
Not sure which type you have? Call (512) 212-9111 and we can help identify it.
Select the symptom that matches your SSD
Each symptom points to a different failure type and recovery method. Pricing differs between SATA and NVMe drives.
Drive not detected by any computer
You plug the SSD in and nothing happens.
What you see
You plug the SSD in and nothing happens. No drive letter, no BIOS entry, no disk management listing.
What this means
The SSD controller has failed, a power management IC (PMIC) has shorted, or a voltage regulator on the PCB has blown. The NAND flash chips storing your data are almost certainly intact.
How we recover the data
We diagnose the PCB under FLIR thermal imaging to isolate the failed component. Repair paths include replacing the shorted PMIC, swapping the controller IC, or transplanting the NAND chips to a donor board using BGA rework.
SATA / 2.5" SSD
$450–$1,500
Recovery tier: Circuit Board Repair or PCB / NAND Swap
NVMe / M.2 SSD
$600–$2,500
Recovery tier: Circuit Board Repair or PCB / NAND Swap
Rush available: +$100 (SATA) / +$100 (NVMe). A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
Shows wrong capacity (8MB instead of 500GB)
The drive appears in your system, but reports a tiny fraction of its actual size or displays a generic model name like "SATAFIRM S11.
What you see
The drive appears in your system, but reports a tiny fraction of its actual size or displays a generic model name like "SATAFIRM S11."
What this means
The firmware's flash translation layer (FTL) has corrupted. The controller can no longer map logical addresses to physical NAND locations. The data is still on the chips; the map to find it is broken.
How we recover the data
We connect the drive to PC-3000 SSD and enter the controller's safe/factory mode. From there we rebuild the translator tables and FTL metadata to make the data accessible again.
SATA / 2.5" SSD
$600–$900
Recovery tier: Firmware Recovery
NVMe / M.2 SSD
$900–$1,200
Recovery tier: Firmware Recovery
Rush available: +$100 (SATA) / +$100 (NVMe). A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
Extremely slow reads or system freezes when connected
The drive mounts, but file transfers stall at a few KB/s or the entire computer locks up when you try to access it.
What you see
The drive mounts, but file transfers stall at a few KB/s or the entire computer locks up when you try to access it.
What this means
NAND flash cells have degraded past their ECC correction threshold. The controller retries reads endlessly, which causes the system hang. Continued use accelerates cell degradation and can make recovery harder.
How we recover the data
PC-3000 reads the NAND at the physical level, bypassing the controller's retry loops. Thermal stabilization (controlled heating of the NAND packages) can improve read success on marginal cells. Multiple imaging passes at different temperatures maximize the data yield.
SATA / 2.5" SSD
$600–$1,500
Recovery tier: Firmware Recovery or PCB / NAND Swap
NVMe / M.2 SSD
$900–$2,500
Recovery tier: Firmware Recovery or PCB / NAND Swap
Rush available: +$100 (SATA) / +$100 (NVMe). A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
Data accidentally deleted or drive formatted
You (or someone else) deleted files, wiped a partition, or reformatted the drive.
What you see
You (or someone else) deleted files, wiped a partition, or reformatted the drive. The drive itself works fine.
What this means
On SSDs, the TRIM command tells the controller to erase blocks that no longer contain valid data. If TRIM ran after the deletion, those blocks are physically zeroed and unrecoverable. If TRIM has not yet executed (drive was powered off quickly, or TRIM was disabled), the data may still be on the NAND.
How we recover the data
We image the drive immediately without mounting it (mounting can trigger TRIM). If the blocks are still intact, file system reconstruction recovers the data. If TRIM has already run, the erased blocks cannot be recovered by any method.
SATA / 2.5" SSD
$250
Recovery tier: File System Recovery
NVMe / M.2 SSD
$250
Recovery tier: File System Recovery
Rush available: +$100 (SATA) / +$100 (NVMe). A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
TRIM may have already erased your data
SSDs with TRIM enabled permanently zero deleted blocks during garbage collection. If TRIM ran after the deletion, those blocks are physically gone. Power off the drive immediately and do not attempt software recovery tools, which mount the drive and can trigger TRIM.
Drive dropped or exposed to liquid
The SSD was physically dropped, stepped on, or got wet.
What you see
The SSD was physically dropped, stepped on, or got wet. It may or may not power on now.
What this means
Physical impact can crack the PCB, sever solder joints under BGA packages, or damage the M.2 connector. Liquid exposure corrodes component pins and can short the power management circuitry. The NAND chips themselves are resilient to impact but vulnerable to prolonged corrosion.
How we recover the data
We inspect the board under magnification and FLIR thermal imaging. Cracked traces get micro-soldered. Corroded components get replaced. If the PCB is beyond repair, we transplant the NAND to a donor board.
SATA / 2.5" SSD
$450–$1,500
Recovery tier: Circuit Board Repair or PCB / NAND Swap
NVMe / M.2 SSD
$600–$2,500
Recovery tier: Circuit Board Repair or PCB / NAND Swap
Rush available: +$100 (SATA) / +$100 (NVMe). A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
Drive works but files are corrupted or missing
The SSD mounts and shows some files, but certain files won't open, folders are missing, or the file system shows errors.
What you see
The SSD mounts and shows some files, but certain files won't open, folders are missing, or the file system shows errors.
What this means
The file system metadata (partition table, MFT, directory entries) is damaged. This can happen after an unsafe shutdown, a failed OS update, or gradual NAND degradation. The underlying data blocks may be fully intact even if the directory structure is broken.
How we recover the data
We image the drive sector-by-sector, then reconstruct the file system from the raw image. Directory entries and file signatures guide the rebuild. No writes touch the original drive.
SATA / 2.5" SSD
$250
Recovery tier: File System Recovery
NVMe / M.2 SSD
$250
Recovery tier: File System Recovery
Rush available: +$100 (SATA) / +$100 (NVMe). A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
Encrypted drive, password lost or key unavailable
Your SSD uses encryption (BitLocker, FileVault, hardware encryption) and you've lost access to the decryption key or password.
What you see
Your SSD uses encryption (BitLocker, FileVault, hardware encryption) and you've lost access to the decryption key or password.
What this means
SSDs encrypt data in two ways. Software encryption (BitLocker, FileVault, VeraCrypt) stores the encrypted data on NAND; without the key, the data is mathematically unrecoverable. Hardware self-encrypting drives (SEDs) use an encryption key stored in the controller firmware. If the controller fails on an SED, the key must be extracted before data access is possible.
How we recover the data
For software encryption: if you have the recovery key, we recover the encrypted data and you decrypt it. Without the key, recovery of readable data is not possible. For hardware-encrypted drives with a failed controller, we attempt firmware-level key extraction using PC-3000 before any hardware intervention.
SATA / 2.5" SSD
$600–$1,500
Recovery tier: Firmware Recovery or PCB / NAND Swap
NVMe / M.2 SSD
$900–$2,500
Recovery tier: Firmware Recovery or PCB / NAND Swap
Rush available: +$100 (SATA) / +$100 (NVMe). A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
Encryption type determines recovery options
Software encryption (BitLocker, FileVault, VeraCrypt) cannot be broken without the original key or recovery key. We can recover the encrypted data, but you must supply the decryption credentials. Hardware self-encrypting drives have different constraints; call us to discuss your specific drive.
Clicking or ticking from external SSD enclosure
Your external SSD is making clicking or ticking sounds.
What you see
Your external SSD is making clicking or ticking sounds. This is unusual for an SSD, which has no moving parts.
What this means
The clicking is coming from the USB-to-SATA/NVMe bridge board in the external enclosure, not from the SSD itself. The bridge chip is failing to negotiate a connection and is power-cycling repeatedly. The SSD inside is likely fine.
How we recover the data
We remove the SSD from the enclosure and connect it directly via a native SATA or NVMe interface. If the SSD is healthy, a simple data copy resolves the issue. If the SSD also has problems, we diagnose from there.
SATA / 2.5" SSD
$200–$600
Recovery tier: Simple Copy or Circuit Board Repair
NVMe / M.2 SSD
$200–$900
Recovery tier: Simple Copy or Circuit Board Repair
Rush available: +$100 (SATA) / +$100 (NVMe). A donor drive is a matching SSD used for its circuit board. Typical donor cost: $40–$100 for common models, $150–$300 for discontinued or rare controllers.
This guide covers common SSD failure patterns. A precise diagnosis requires physical evaluation of your drive at our Austin, TX lab. The evaluation is free and carries no obligation.
