How Satellite Component Fabricators Use Gaugify to Pass Audits

How Satellite Component Fabricators Use Gaugify to Pass Audits

David Bentley

Quality Assurance Engineer

9 min read

How Satellite Component Fabricators Use Gaugify to Pass Audits

For manufacturers supplying components to the aerospace and defense supply chain, a failed calibration audit isn't just an inconvenience — it can mean lost contracts, production shutdowns, and disqualification from supplier lists. Satellite component calibration audit software has become a critical tool for fabricators who need to demonstrate measurement traceability, on-time calibration compliance, and complete documentation control to demanding customers like prime contractors and government agencies. This guide walks through exactly how satellite component fabricators are using Gaugify to walk into audits with confidence — and walk out with approvals.

The Unique Calibration Challenges Facing Satellite Component Fabricators

Satellite component fabrication sits at one of the most demanding intersections in all of manufacturing. You're producing parts that will operate in extreme thermal environments, experience launch vibration loads, and function without maintenance for years in orbit. The tolerance windows are extraordinarily tight — surface flatness specifications in the range of ±0.0002 inches, torque values on fasteners holding antenna arrays to within ±0.5 lb-in, and thermal coating thickness measurements accurate to within a few micrometers.

With stakes that high, your measurement equipment isn't just a tool — it's a liability if it falls out of calibration. And yet many satellite component shops are still managing calibration with spreadsheets, paper binders, and calendar reminders. The results are predictable: missed due dates, lost certificates, and scrambled last-minute calibrations the week before an audit.

The specific challenges that come up repeatedly in this industry include:

  • High instrument counts with short calibration intervals: A single satellite bus machining cell might have 40 to 80 calibrated instruments, many requiring 6-month or even 90-day intervals due to the precision required.

  • Multi-site traceability requirements: Fabricators often operate clean rooms, machine shops, and metrology labs in separate facilities, making centralized records management critical.

  • Customer-specific calibration requirements: NASA, ESA suppliers, and prime contractors like Northrop Grumman or Lockheed Martin may each impose different documentation standards on top of AS9100 and ISO 17025 baselines.

  • Measurement uncertainty documentation: Auditors increasingly require not just that a gage is calibrated, but that the calibration uncertainty is appropriate relative to the tolerance being controlled.

  • Out-of-tolerance event handling: When an instrument is found out of tolerance, the entire record of parts measured with that instrument since its last valid calibration must be reviewed and potentially quarantined.

Equipment Commonly Calibrated in Satellite Component Fabrication

Understanding what needs to be tracked is the first step toward building a compliant calibration program. In a typical satellite component fabrication environment, the calibrated instrument population spans a wide range of measurement disciplines:

Dimensional Measurement Tools

  • Coordinate Measuring Machines (CMMs) — often calibrated at 6-month intervals with full artifact verification

  • Precision micrometer sets (outside, inside, depth) with calibration intervals of 6 to 12 months

  • Dial indicators and digital indicators used in fixturing and setup verification

  • Laser trackers and structured light scanners used for large-scale satellite bus assembly verification

  • Air gages and bore gages used for precision bore diameter checks on thruster mounts and bearing housings

Torque and Force Measurement

  • Torque wrenches and torque screwdrivers — typically on 6-month intervals, especially those used on flight hardware fasteners

  • Load cells used in pull testing of electrical connectors and harness brackets

  • Torque analyzers used to verify torque tool accuracy

Electrical and Environmental Test Equipment

  • Digital multimeters used in harness continuity and resistance verification

  • Oscilloscopes and signal analyzers used in payload electronics testing

  • Temperature chambers and humidity chambers used in thermal cycling qualification

  • Pressure transducers and vacuum gauges used in propulsion system leak testing

Surface and Coating Measurement

  • Surface roughness profilometers verifying finish requirements on optical mounting surfaces

  • Thickness gages used on thermal control coatings and multi-layer insulation (MLI) verification

  • Hardness testers used on structural alloy parts per material specifications

Managing calibration intervals, certificate storage, and traceability chains for 50 to 200 instruments across these disciplines is where manual systems consistently break down — and where dedicated satellite component calibration audit software delivers its most immediate value.

Quality Standards and Compliance Requirements That Drive Audit Scrutiny

Satellite component fabricators operate under a layered compliance environment. Understanding which standards apply — and exactly what each one requires for calibration management — is essential preparation for any audit.

AS9100 Rev D

AS9100 Rev D, Section 7.1.5 (Monitoring and Measuring Resources) requires that measuring equipment be calibrated or verified at specified intervals against measurement standards traceable to international or national standards, that equipment be identified so its calibration status can be determined, and that calibration records be retained as documented information. Auditors will specifically check that your recall system is functioning — meaning instruments are not in service past their due dates — and that out-of-tolerance events are documented with appropriate corrective action.

ISO 10012 and ISO/IEC 17025

For in-house calibration labs performing their own instrument calibrations, ISO/IEC 17025 compliance adds requirements for measurement uncertainty documentation, method validation, and personnel competency records. ISO 10012 provides the broader measurement management system framework that ties your production measurement processes back to your calibration infrastructure. Auditors from accreditation bodies conducting A2LA or NVLAP assessments will drill deeply into your uncertainty budgets and calibration procedure documentation.

ITAR and Export Control Documentation

While not a calibration standard per se, ITAR requirements mean that calibration records for equipment used on defense satellite programs may need to be stored and accessed in controlled environments. Your calibration software needs to support role-based access control and audit logging to satisfy program security requirements.

Customer Flow-Down Requirements

Prime contractors typically flow down specific calibration documentation requirements through their purchase orders and quality clauses. Common requirements include that all calibrated instruments used on flight hardware be identified on calibration records, that measurement uncertainty be declared for critical measurements, and that calibration certificates reference the specific national standards used in the traceability chain.

What Auditors Actually Look For During a Calibration Audit

If you've been through an AS9100 or customer source inspection audit in this industry, you know that the calibration portion of the audit is rarely a quick checkbox exercise. Experienced auditors follow specific investigative patterns:

The Pull-a-Random-Gage Test

An auditor walks the shop floor, picks up a micrometer or torque wrench at random, reads the asset tag number, and asks you to pull the calibration record on the spot. They want to see the current certificate, confirm the due date hasn't passed, verify the traceability chain back to NIST, and review any as-found/as-left data. If you're hunting through a filing cabinet or a disorganized shared drive folder, you've already created a negative impression — and if the certificate is missing entirely, you're looking at a finding.

The Out-of-Tolerance Scenario Review

Auditors will ask to see your records of instruments found out of tolerance during calibration. They want to confirm that you have a documented process for evaluating the impact on product made since the last valid calibration. If you can't quickly produce a list of out-of-tolerance events with associated impact assessments and dispositions, that's a significant gap.

Interval Compliance Verification

Auditors may pull a sample of 10 to 20 instruments and check whether any were in service past their due date at any point in the past 12 months. This requires historical records, not just current status. A spreadsheet that only shows current status cannot answer this question. Your system needs to show the full calibration history with timestamps for each event.

Measurement Uncertainty Adequacy

For critical dimensional characteristics, an auditor may ask how you determined that the measurement uncertainty of your calibration process is appropriate relative to the drawing tolerance. The general industry benchmark is a 4:1 test accuracy ratio — your calibration standard's uncertainty should be no worse than one-fourth of the tolerance being verified. Demonstrating this requires documented uncertainty analyses that are linked to your calibration procedures.

How Gaugify Solves Each of These Pain Points

This is where satellite component calibration audit software moves from a nice-to-have to a operational necessity. Gaugify was built specifically to eliminate the gaps that cause calibration audit findings. Here's how each capability maps to the real-world audit scenarios described above:

Automated Scheduling and Overdue Alerts

Gaugify maintains a live calibration schedule for every instrument in your database, automatically calculating next-due dates based on your defined intervals. Overdue instruments are flagged immediately, and configurable email alerts notify designated personnel when instruments are approaching their due dates — 30, 14, and 7 days out, as you configure. This eliminates the "we didn't know it was overdue" explanation that no auditor accepts. You can filter your entire instrument population by status, department, or location in seconds and export a compliance summary before any audit visit.

Instant Certificate Retrieval

Every calibration certificate in Gaugify is stored against the instrument record, fully searchable by asset number, serial number, instrument type, or calibration date. When an auditor picks up a micrometer and asks for its record, you pull it up in under 30 seconds on any device — including a tablet on the shop floor. The certificate management features support PDF uploads from external calibration labs and digital certificate generation for in-house calibrations, with full traceability chain documentation included on every record.

Out-of-Tolerance Event Management

When an instrument is returned from calibration with an out-of-tolerance finding, Gaugify prompts an immediate out-of-tolerance event record. The event record captures the as-found condition, the corrective action taken, and most critically, links to all jobs or part numbers where that instrument was used since its last valid calibration. This gives you the documented impact assessment that auditors require, without manually cross-referencing production logs and calibration dates across multiple systems.

Measurement Uncertainty Documentation

For shops operating in-house calibration labs or needing to document calibration uncertainty for customer flow-down requirements, Gaugify supports uncertainty budget documentation linked directly to calibration procedure records. You can store expanded uncertainty values against each calibration standard, reference the confidence level and coverage factor, and generate reports that demonstrate your test accuracy ratios for critical measurement applications — exactly the documentation an ISO 17025 or customer auditor wants to see.

Complete Audit Trail

Every action in Gaugify — certificate uploads, interval changes, status updates, out-of-tolerance event records — is logged with a user ID and timestamp. This means you can answer the auditor's historical compliance question definitively: was Instrument #T-0042 ever used past its calibration due date in the past 24 months? Gaugify gives you that answer in a printable report. The compliance audit trail is one of the most valued features among aerospace customers precisely because it converts a previously unanswerable question into a 60-second report pull.

Role-Based Access and Multi-Site Support

For satellite fabricators operating across machine shop, clean room, and metrology lab environments — potentially in separate facilities — Gaugify's role-based access control lets you assign view and edit permissions by department or location. Your clean room technicians see their instruments; your metrology lab manager manages the master standards database; your quality manager has visibility across all sites. This satisfies both internal control requirements and the access control documentation expectations of ITAR-adjacent programs.

Ready to walk into your next audit with complete confidence? Hundreds of precision manufacturers — including aerospace and defense suppliers — use Gaugify to maintain audit-ready calibration records every day. Start your free trial today and have your calibration program organized within hours, not weeks.

Real-World Audit Preparation Workflow with Gaugify

Here's how a quality manager at a satellite component fabricator might actually use Gaugify in the two weeks leading up to a scheduled AS9100 surveillance audit:

Two Weeks Before the Audit

Run the overdue and upcoming-due report across all instrument locations. Any instruments due within the audit window get flagged for expedited calibration scheduling. Confirm that all external lab certificates received in the past 90 days have been uploaded and linked to instrument records. Review the out-of-tolerance event log to ensure all open events have documented dispositions.

One Week Before the Audit

Generate the full calibration status summary report — a paginated list of every instrument showing current status, last calibration date, next due date, and certificate reference number. This becomes the document you hand the auditor on day one as evidence that your recall system is active and functioning. It takes about two minutes to generate in Gaugify.

Day of the Audit

When the auditor picks up a random instrument on the floor, you open Gaugify on a tablet, type in the asset number, and display the full record including the current certificate, the traceability chain, the calibration interval justification, and the history of all previous calibrations. The auditor writes notes. You don't sweat.

Why Satellite Component Fabricators Choose Gaugify Over Generic Solutions

Spreadsheets fail because they don't enforce process — they just record data that someone remembered to enter. Generic document management systems fail because they have no understanding of calibration intervals, due date logic, or traceability chain requirements. Enterprise ERP calibration modules often exist in name only, with minimal functionality and no audit-specific reporting.

Gaugify was purpose-built for precision manufacturing quality teams. The interface is designed so that a shop floor supervisor can pull a certificate in 30 seconds without training. The reporting is designed so that a quality manager can prepare for an audit in two hours instead of two days. The pricing is designed so that a 50-person precision shop can afford it without an enterprise software budget. You can review the full Gaugify pricing options to find the plan that fits your operation.

The result is a calibration program that doesn't just survive audits — it actively demonstrates the maturity and rigor of your quality system to every customer, prime contractor, and certification body that reviews it.

Get Your Satellite Component Calibration Program Audit-Ready

The next time an auditor walks onto your floor and asks to see a calibration record, the difference between a finding and a smooth audit response comes down to whether your system is organized, current, and accessible. For satellite component fabricators working under AS9100, ISO 17025, and customer flow-down requirements, that organization isn't optional — it's the baseline expectation.

Gaugify gives you the scheduling automation, certificate management, out-of-tolerance tracking, and audit trail documentation to meet that expectation reliably — not just the week before an audit, but every day your measurement equipment is in service on flight hardware.

Don't wait for an audit finding to upgrade your calibration management system. Start your free Gaugify trial today and see how quickly your team can get to audit-ready status. Or if you'd prefer to see the platform configured for an aerospace calibration environment before you commit, schedule a live demo with our team — we'll walk through your specific instrument types, interval requirements, and audit documentation needs in a focused session.

How Satellite Component Fabricators Use Gaugify to Pass Audits

For manufacturers supplying components to the aerospace and defense supply chain, a failed calibration audit isn't just an inconvenience — it can mean lost contracts, production shutdowns, and disqualification from supplier lists. Satellite component calibration audit software has become a critical tool for fabricators who need to demonstrate measurement traceability, on-time calibration compliance, and complete documentation control to demanding customers like prime contractors and government agencies. This guide walks through exactly how satellite component fabricators are using Gaugify to walk into audits with confidence — and walk out with approvals.

The Unique Calibration Challenges Facing Satellite Component Fabricators

Satellite component fabrication sits at one of the most demanding intersections in all of manufacturing. You're producing parts that will operate in extreme thermal environments, experience launch vibration loads, and function without maintenance for years in orbit. The tolerance windows are extraordinarily tight — surface flatness specifications in the range of ±0.0002 inches, torque values on fasteners holding antenna arrays to within ±0.5 lb-in, and thermal coating thickness measurements accurate to within a few micrometers.

With stakes that high, your measurement equipment isn't just a tool — it's a liability if it falls out of calibration. And yet many satellite component shops are still managing calibration with spreadsheets, paper binders, and calendar reminders. The results are predictable: missed due dates, lost certificates, and scrambled last-minute calibrations the week before an audit.

The specific challenges that come up repeatedly in this industry include:

  • High instrument counts with short calibration intervals: A single satellite bus machining cell might have 40 to 80 calibrated instruments, many requiring 6-month or even 90-day intervals due to the precision required.

  • Multi-site traceability requirements: Fabricators often operate clean rooms, machine shops, and metrology labs in separate facilities, making centralized records management critical.

  • Customer-specific calibration requirements: NASA, ESA suppliers, and prime contractors like Northrop Grumman or Lockheed Martin may each impose different documentation standards on top of AS9100 and ISO 17025 baselines.

  • Measurement uncertainty documentation: Auditors increasingly require not just that a gage is calibrated, but that the calibration uncertainty is appropriate relative to the tolerance being controlled.

  • Out-of-tolerance event handling: When an instrument is found out of tolerance, the entire record of parts measured with that instrument since its last valid calibration must be reviewed and potentially quarantined.

Equipment Commonly Calibrated in Satellite Component Fabrication

Understanding what needs to be tracked is the first step toward building a compliant calibration program. In a typical satellite component fabrication environment, the calibrated instrument population spans a wide range of measurement disciplines:

Dimensional Measurement Tools

  • Coordinate Measuring Machines (CMMs) — often calibrated at 6-month intervals with full artifact verification

  • Precision micrometer sets (outside, inside, depth) with calibration intervals of 6 to 12 months

  • Dial indicators and digital indicators used in fixturing and setup verification

  • Laser trackers and structured light scanners used for large-scale satellite bus assembly verification

  • Air gages and bore gages used for precision bore diameter checks on thruster mounts and bearing housings

Torque and Force Measurement

  • Torque wrenches and torque screwdrivers — typically on 6-month intervals, especially those used on flight hardware fasteners

  • Load cells used in pull testing of electrical connectors and harness brackets

  • Torque analyzers used to verify torque tool accuracy

Electrical and Environmental Test Equipment

  • Digital multimeters used in harness continuity and resistance verification

  • Oscilloscopes and signal analyzers used in payload electronics testing

  • Temperature chambers and humidity chambers used in thermal cycling qualification

  • Pressure transducers and vacuum gauges used in propulsion system leak testing

Surface and Coating Measurement

  • Surface roughness profilometers verifying finish requirements on optical mounting surfaces

  • Thickness gages used on thermal control coatings and multi-layer insulation (MLI) verification

  • Hardness testers used on structural alloy parts per material specifications

Managing calibration intervals, certificate storage, and traceability chains for 50 to 200 instruments across these disciplines is where manual systems consistently break down — and where dedicated satellite component calibration audit software delivers its most immediate value.

Quality Standards and Compliance Requirements That Drive Audit Scrutiny

Satellite component fabricators operate under a layered compliance environment. Understanding which standards apply — and exactly what each one requires for calibration management — is essential preparation for any audit.

AS9100 Rev D

AS9100 Rev D, Section 7.1.5 (Monitoring and Measuring Resources) requires that measuring equipment be calibrated or verified at specified intervals against measurement standards traceable to international or national standards, that equipment be identified so its calibration status can be determined, and that calibration records be retained as documented information. Auditors will specifically check that your recall system is functioning — meaning instruments are not in service past their due dates — and that out-of-tolerance events are documented with appropriate corrective action.

ISO 10012 and ISO/IEC 17025

For in-house calibration labs performing their own instrument calibrations, ISO/IEC 17025 compliance adds requirements for measurement uncertainty documentation, method validation, and personnel competency records. ISO 10012 provides the broader measurement management system framework that ties your production measurement processes back to your calibration infrastructure. Auditors from accreditation bodies conducting A2LA or NVLAP assessments will drill deeply into your uncertainty budgets and calibration procedure documentation.

ITAR and Export Control Documentation

While not a calibration standard per se, ITAR requirements mean that calibration records for equipment used on defense satellite programs may need to be stored and accessed in controlled environments. Your calibration software needs to support role-based access control and audit logging to satisfy program security requirements.

Customer Flow-Down Requirements

Prime contractors typically flow down specific calibration documentation requirements through their purchase orders and quality clauses. Common requirements include that all calibrated instruments used on flight hardware be identified on calibration records, that measurement uncertainty be declared for critical measurements, and that calibration certificates reference the specific national standards used in the traceability chain.

What Auditors Actually Look For During a Calibration Audit

If you've been through an AS9100 or customer source inspection audit in this industry, you know that the calibration portion of the audit is rarely a quick checkbox exercise. Experienced auditors follow specific investigative patterns:

The Pull-a-Random-Gage Test

An auditor walks the shop floor, picks up a micrometer or torque wrench at random, reads the asset tag number, and asks you to pull the calibration record on the spot. They want to see the current certificate, confirm the due date hasn't passed, verify the traceability chain back to NIST, and review any as-found/as-left data. If you're hunting through a filing cabinet or a disorganized shared drive folder, you've already created a negative impression — and if the certificate is missing entirely, you're looking at a finding.

The Out-of-Tolerance Scenario Review

Auditors will ask to see your records of instruments found out of tolerance during calibration. They want to confirm that you have a documented process for evaluating the impact on product made since the last valid calibration. If you can't quickly produce a list of out-of-tolerance events with associated impact assessments and dispositions, that's a significant gap.

Interval Compliance Verification

Auditors may pull a sample of 10 to 20 instruments and check whether any were in service past their due date at any point in the past 12 months. This requires historical records, not just current status. A spreadsheet that only shows current status cannot answer this question. Your system needs to show the full calibration history with timestamps for each event.

Measurement Uncertainty Adequacy

For critical dimensional characteristics, an auditor may ask how you determined that the measurement uncertainty of your calibration process is appropriate relative to the drawing tolerance. The general industry benchmark is a 4:1 test accuracy ratio — your calibration standard's uncertainty should be no worse than one-fourth of the tolerance being verified. Demonstrating this requires documented uncertainty analyses that are linked to your calibration procedures.

How Gaugify Solves Each of These Pain Points

This is where satellite component calibration audit software moves from a nice-to-have to a operational necessity. Gaugify was built specifically to eliminate the gaps that cause calibration audit findings. Here's how each capability maps to the real-world audit scenarios described above:

Automated Scheduling and Overdue Alerts

Gaugify maintains a live calibration schedule for every instrument in your database, automatically calculating next-due dates based on your defined intervals. Overdue instruments are flagged immediately, and configurable email alerts notify designated personnel when instruments are approaching their due dates — 30, 14, and 7 days out, as you configure. This eliminates the "we didn't know it was overdue" explanation that no auditor accepts. You can filter your entire instrument population by status, department, or location in seconds and export a compliance summary before any audit visit.

Instant Certificate Retrieval

Every calibration certificate in Gaugify is stored against the instrument record, fully searchable by asset number, serial number, instrument type, or calibration date. When an auditor picks up a micrometer and asks for its record, you pull it up in under 30 seconds on any device — including a tablet on the shop floor. The certificate management features support PDF uploads from external calibration labs and digital certificate generation for in-house calibrations, with full traceability chain documentation included on every record.

Out-of-Tolerance Event Management

When an instrument is returned from calibration with an out-of-tolerance finding, Gaugify prompts an immediate out-of-tolerance event record. The event record captures the as-found condition, the corrective action taken, and most critically, links to all jobs or part numbers where that instrument was used since its last valid calibration. This gives you the documented impact assessment that auditors require, without manually cross-referencing production logs and calibration dates across multiple systems.

Measurement Uncertainty Documentation

For shops operating in-house calibration labs or needing to document calibration uncertainty for customer flow-down requirements, Gaugify supports uncertainty budget documentation linked directly to calibration procedure records. You can store expanded uncertainty values against each calibration standard, reference the confidence level and coverage factor, and generate reports that demonstrate your test accuracy ratios for critical measurement applications — exactly the documentation an ISO 17025 or customer auditor wants to see.

Complete Audit Trail

Every action in Gaugify — certificate uploads, interval changes, status updates, out-of-tolerance event records — is logged with a user ID and timestamp. This means you can answer the auditor's historical compliance question definitively: was Instrument #T-0042 ever used past its calibration due date in the past 24 months? Gaugify gives you that answer in a printable report. The compliance audit trail is one of the most valued features among aerospace customers precisely because it converts a previously unanswerable question into a 60-second report pull.

Role-Based Access and Multi-Site Support

For satellite fabricators operating across machine shop, clean room, and metrology lab environments — potentially in separate facilities — Gaugify's role-based access control lets you assign view and edit permissions by department or location. Your clean room technicians see their instruments; your metrology lab manager manages the master standards database; your quality manager has visibility across all sites. This satisfies both internal control requirements and the access control documentation expectations of ITAR-adjacent programs.

Ready to walk into your next audit with complete confidence? Hundreds of precision manufacturers — including aerospace and defense suppliers — use Gaugify to maintain audit-ready calibration records every day. Start your free trial today and have your calibration program organized within hours, not weeks.

Real-World Audit Preparation Workflow with Gaugify

Here's how a quality manager at a satellite component fabricator might actually use Gaugify in the two weeks leading up to a scheduled AS9100 surveillance audit:

Two Weeks Before the Audit

Run the overdue and upcoming-due report across all instrument locations. Any instruments due within the audit window get flagged for expedited calibration scheduling. Confirm that all external lab certificates received in the past 90 days have been uploaded and linked to instrument records. Review the out-of-tolerance event log to ensure all open events have documented dispositions.

One Week Before the Audit

Generate the full calibration status summary report — a paginated list of every instrument showing current status, last calibration date, next due date, and certificate reference number. This becomes the document you hand the auditor on day one as evidence that your recall system is active and functioning. It takes about two minutes to generate in Gaugify.

Day of the Audit

When the auditor picks up a random instrument on the floor, you open Gaugify on a tablet, type in the asset number, and display the full record including the current certificate, the traceability chain, the calibration interval justification, and the history of all previous calibrations. The auditor writes notes. You don't sweat.

Why Satellite Component Fabricators Choose Gaugify Over Generic Solutions

Spreadsheets fail because they don't enforce process — they just record data that someone remembered to enter. Generic document management systems fail because they have no understanding of calibration intervals, due date logic, or traceability chain requirements. Enterprise ERP calibration modules often exist in name only, with minimal functionality and no audit-specific reporting.

Gaugify was purpose-built for precision manufacturing quality teams. The interface is designed so that a shop floor supervisor can pull a certificate in 30 seconds without training. The reporting is designed so that a quality manager can prepare for an audit in two hours instead of two days. The pricing is designed so that a 50-person precision shop can afford it without an enterprise software budget. You can review the full Gaugify pricing options to find the plan that fits your operation.

The result is a calibration program that doesn't just survive audits — it actively demonstrates the maturity and rigor of your quality system to every customer, prime contractor, and certification body that reviews it.

Get Your Satellite Component Calibration Program Audit-Ready

The next time an auditor walks onto your floor and asks to see a calibration record, the difference between a finding and a smooth audit response comes down to whether your system is organized, current, and accessible. For satellite component fabricators working under AS9100, ISO 17025, and customer flow-down requirements, that organization isn't optional — it's the baseline expectation.

Gaugify gives you the scheduling automation, certificate management, out-of-tolerance tracking, and audit trail documentation to meet that expectation reliably — not just the week before an audit, but every day your measurement equipment is in service on flight hardware.

Don't wait for an audit finding to upgrade your calibration management system. Start your free Gaugify trial today and see how quickly your team can get to audit-ready status. Or if you'd prefer to see the platform configured for an aerospace calibration environment before you commit, schedule a live demo with our team — we'll walk through your specific instrument types, interval requirements, and audit documentation needs in a focused session.