FreeScan Omni
$38,999.00
View FreeScan Omni
FreeScan Omni for AS9102 First Article Inspection: What Aerospace Suppliers Must Validate
Direct answer: SHINING 3D FreeScan Omni can support dimensional data capture, CAD comparison, GD&T evaluation, and report generation within an aerospace first article inspection workflow. It cannot complete or certify an AS9102C first article inspection by itself. The supplier remains responsible for controlling the design authority, accounting for every applicable characteristic, validating the measurement method, preserving material and special-process evidence, applying customer requirements, and completing the required First Article Inspection Report (FAIR).
That distinction matters because the most attractive FreeScan Omni feature performing scan-to-inspect work directly on the handheld device can remove real shop-floor friction. It can also create false confidence if a color map or dimensional report is treated as the entire FAI package.
This guide is for North American aerospace and defense suppliers evaluating whether a wireless, on-device inspection workflow can reduce FAI bottlenecks without weakening measurement discipline or documentation control.
Why first article inspection becomes a production bottleneck
A first article inspection is not simply a long list of dimensions. It is evidence that the planned production process can produce an item that conforms to the applicable engineering requirements. When a new part number, design change, manufacturing source, process change, lapse in production, or other triggering condition requires a full or partial FAI, quality teams must connect multiple evidence streams:
- the correct drawing or digital product definition revision;
- part-number and assembly accountability;
- raw-material and special-process certifications;
- ballooned or otherwise uniquely identified characteristics;
- measurement results and the equipment used;
- nonconformance dispositions and customer approvals;
- the completed FAIR in the required format.
Dense 3D scanning can accelerate the dimensional part of that work, particularly for complex surfaces and broad geometric coverage. It does not eliminate the rest of the evidence chain.
What AS9102C requires and what it does not certify
SAE International identifies AS9102C as the current revision of the Aerospace Series First Article Inspection Requirements standard, revised in June 2023. The standard establishes requirements for performing and documenting FAI and explicitly treats those requirements as complementary to customer, statutory, and regulatory requirements.
AS9102C applies to the organization's FAI process. It does not place an “AS9102-certified label on a scanner, CMM, caliper, inspection-software package, or report. A measurement system becomes useful to the FAIR only when the organization has demonstrated that the method is appropriate for the characteristic and has integrated the result into its controlled process.
That means a purchasing question such as FreeScan Omni AS9102 compliant is incomplete. A better qualification question is:
Which drawing or model-based characteristics can this measurement process evaluate, at the required uncertainty, with results that our customer and quality system will accept as FAIR evidence?
Where FreeScan Omni fits in the FAI workflow
FreeScan Omni is a standalone handheld metrology platform. SHINING 3D states that scanning, meshing, inspection, and reporting can be completed on the device, with PC operation still available. The manufacturer lists four capture approaches: 93 blue-laser lines for high-speed scanning, 25 parallel laser lines for detail, a single laser line for deep pockets, and an infrared VCSEL rapid mode for marker-free capture.
Current official specifications list:
- accuracy up to 0.02 mm;
- volumetric accuracy up to 0.02 + 0.03 mm/m;
- volumetric extension accuracy with video photogrammetry up to 0.02 + 0.015 mm/m;
- scan speed up to 7,619,000 points per second;
- laser field of view up to 580 - 650 mm;
- infrared field of view up to 1205 - 1104 mm;
- VDI/VDE 2634 Part 3 and ISO 10360 acceptance testing in an ISO/IEC 17025-accredited laboratory.
Those are manufacturer specifications under defined conditions. They are not a prediction of the uncertainty for every part, operator, surface, environment, alignment, software routine, or feature. The FAI method must be qualified against the real application.
Map scanner output to the FAIR not the other way around
| FAI evidence area | What FreeScan Omni may support | What remains outside the scanner |
|---|---|---|
| Part and assembly accountability | Part/report identification and supporting dimensional file | Controlled part numbers, assembly hierarchy, revisions, and organizational approval |
| Materials and special processes | Surface-geometry evidence where relevant | Material certificates, process certifications, functional tests, and supplier traceability |
| Characteristic accountability | Dense surface comparison and qualified GD&T measurements | Complete characteristic list, ballooning/identification, method selection, acceptance, and unresolved characteristics |
| FAIR approval | Exportable supporting report | FAIR completion, signature/approval, customer portal requirements, and record retention |
An eight-step qualification workflow for aerospace suppliers
1. Freeze the applicable design authority
Start with the controlled drawing, model-based definition, specification set, purchase-order requirements, and customer-specific clauses. Confirm the revision before scanning. A precise result against the wrong nominal model is still wrong evidence.
2. Build characteristic accountability before choosing the tool
Identify every dimensional, geometric, visual, material, process, functional, and note-based requirement. Assign a proposed verification method to each characteristic. The scanner should be selected where dense optical surface data is appropriate not because it is the newest instrument available.
3. Define the datum reference frame and alignment
A global best fit can distribute deviation across the entire surface and make a part appear better centered than it would be in its functional assembly or machining setup. Reproduce the datum reference frame and alignment logic required by the drawing or approved inspection plan. Record which surfaces and features establish the alignment and how they were extracted from the scan.
4. Establish measurement capability
Compare the proposed method with the tolerance, feature geometry, material, surface finish, accessibility, environment, and customer expectations. Use calibrated artifacts, correlation studies, repeated measurements, Gage R&R, uncertainty analysis, or another approved method appropriate to the quality system.
A 0.02 mm manufacturer accuracy specification does not mean a 0.02 mm uncertainty for every extracted diameter, position, profile, or surface result. Registration, mesh settings, feature-fitting algorithms, alignment, coating thickness, temperature, and operator technique all contribute.
5. Control the part and environment
Allow the part and equipment to stabilize as required. Control temperature, vibration, direct sunlight, contamination, fixturing, and access. Record surface preparation and any scanning spray. If coating thickness is meaningful relative to the tolerance, include it in the method assessment.
6. Capture with the mode that matches the characteristic
High-speed laser scanning can cover broad geometry; parallel or single-line modes can reinforce detailed or recessed areas; infrared marker-free capture can accelerate appropriate surfaces. A marker-free workflow is not automatically suitable for an FAI characteristic. Demonstrate capability for the exact mode, alignment, and feature.
7. Review on-device results without bypassing independent checks
On-device inspection can shorten the feedback loop by showing deviations and dimensional results at the part. Use that speed to find missing coverage, misalignment, or nonconformance before the setup is disturbed. Preserve independent or supplemental inspection for characteristics that the scan cannot evaluate with adequate confidence.
8. Reconcile every result into the controlled FAIR
Export and retain the report, project identifiers, nominal-data revision, calibration/verification status, inspection method, equipment identifier, operator, environmental observations, excluded areas, and results. Reconcile each applicable drawing characteristic with the FAIR rather than attaching a large report and assuming it proves completeness.
Metrological traceability still belongs to the result
NIST defines metrological traceability as a property of a measurement result established through a documented, unbroken chain of calibrations, each contributing to measurement uncertainty. A traceable calibration certificate is important evidence, but it does not make every scan or report traceable by itself.
The organization should preserve the measurand, units, calibration chain, uncertainty, instrument status, environmental controls, software and processing steps, alignment, decision rule, and relationship between uncertainty and tolerance. Customer or regulatory requirements may impose additional controls.
Data security and export-controlled work
A wireless, standalone inspection device should be reviewed through the same information-security and export-control process applied to other systems that create, store, transmit, or export controlled technical data. Do not assume that a product certification or wireless feature makes a device approved for ITAR-, EAR-, CUI-, customer-controlled, or classified information.
Before production deployment, document:
- what drawings, models, point clouds, meshes, reports, and metadata reside on the device;
- how data moves through Wi-Fi, the Smart Dock, removable media, or connected computers;
- who can access, export, delete, back up, or recover project files;
- how software and firmware are approved and updated;
- where exported files are stored and how retention requirements are enforced;
- whether the customer or facility requires an offline or segregated workflow.
This is a contract, security, and compliance decision not a scanner-marketing claim.
What a useful FreeScan Omni demo should prove
An aerospace demo should not be a speed contest on an easy artifact. It should reproduce the proposed FAI decision on a representative part.
| Demo test | Evidence to collect | Failure signal |
|---|---|---|
| Datum alignment | Documented datum construction and repeat alignment | Result changes materially with operator or alignment choice |
| Critical characteristic correlation | Comparison with an accepted CMM, gage, or reference method | Bias or variation consumes too much tolerance |
| Coverage and line of sight | Map of measured, missing, and supplemental-gage zones | Critical features are inaccessible or unstable |
| Repeatability | Repeated captures by intended operators | Operator-to-operator spread is uncontrolled |
| On-device report workflow | Traceable project/report identifiers and export test | Report cannot be reconciled to FAIR characteristics |
| Security workflow | Approved data-transfer, storage, update, and deletion process | Controlled data path is undefined |
SKYLAB3D can structure this evaluation around your part and quality requirements. Request a FreeScan Omni aerospace FAI demo or request an inspection-system recommendation.
For broader context, review SKYLAB3D's industrial 3D scanning and inspection workflow, compare the currently available FreeScan Combo Series, or browse more Industrial Insights.
Frequently asked questions
Can FreeScan Omni complete an AS9102 first article inspection by itself?
No. It can generate dimensional inspection evidence, but the supplier must complete the full FAI process, including part accountability, material and special-process evidence, characteristic accountability, customer requirements, and FAIR approval.
Can an on-device GD&T report be used as AS9102 Form 3 evidence?
Potentially, when the measurement method is qualified and the report can be reconciled to the applicable characteristics. The organization's procedure and customer requirements determine acceptance. Attaching a report without characteristic-level accountability is not enough.
Can FreeScan Omni replace a CMM?
It may replace or accelerate selected measurements, especially where dense surface coverage and portability matter. It does not universally replace a CMM, laser tracker, vision system, roughness instrument, functional gage, or NDT method. Choose the method characteristic by characteristic.
What is the difference between FreeScan Omni and Omni Lite?
SHINING 3D states that both share the same hardware foundation and support standalone and PC operation. The full Omni includes on-device inspection, SHINING 3D Inspect for PC, video photogrammetry, and AI feature recognition; Omni Lite can add certain modules as the application evolves. Confirm the current commercial configuration during the quote.
Does wireless operation reduce measurement accuracy?
The manufacturer states that wireless connectivity handles data transmission and does not change accuracy. The organization must still validate the complete measurement workflow, including environment, capture, registration, alignment, processing, and reporting.
Can marker-free infrared scanning be used for FAI?
Only when the specific mode and workflow have demonstrated adequate capability for the characteristic. Marker-free convenience is not a substitute for measurement uncertainty, datum control, correlation, or customer approval.
Does video photogrammetry eliminate all markers?
SHINING 3D describes its VPG workflow as eliminating coded markers through video capture and a validated scale bar. Standard reference markers may still be part of the scanning workflow. Qualify the actual target layout and large-part procedure.
What should we bring to an Omni demo?
Bring a representative part, controlled drawing or digital product definition, characteristic list, datum scheme, tolerance range, current measurement methods, expected throughput, report requirements, and security constraints. Remove or sanitize controlled data unless the demo environment is approved for it.
Bottom line
FreeScan Omni's strategic value is not simply that it is wireless. It is the possibility of moving a controlled scan-to-inspect loop closer to the first article while preserving rapid feedback, dense surface coverage, and report generation.
The purchasing decision should still be governed by measurement capability and evidence flow. Qualify the scanner against representative characteristics, control the datum and nominal revision, correlate critical results, identify what requires supplemental inspection, secure the technical data, and reconcile every applicable result into the FAIR. That is how speed becomes defensible quality evidence instead of another disconnected report.