Where engineers actually keep their work

• How often do your engineers save working design files to local drives rather than checking them into the PLM? Options: Almost always, Often, Sometimes, Rarely, Never
• Tell me about the last time an engineer bypassed the PLM for a live design file, what happened and how was it resolved?
• Estimate the percentage of design artifacts in the PLM that are likely out of date for active projects Options: 0-10%, 11-25%, 26-50%, 51-75%, 76-100%
• Which categories of CAD or design tools are used day to day across teams Options: Mechanical CAD (MCAD), Electrical CAD (ECAD), Mixed-domain assemblies, Scripting or in-house CAD, Other
• Who owns enforcement of check-in, revision control, and BOM accuracy in your organization Options: PLM administrator, Engineering manager, IT/Platform team, Quality/Compliance, Shared responsibility, Other
• If the current local-save behavior continued, what measurable business outcome would force leadership to mandate a change within a year

The save flow, where it slows down

• When a save or check-in feels interruptive in the middle of a design task, what workaround do engineers use first Options: Save locally and postpone check-in, Export only critical files, Manual BOM re-entry later, Use shared network storage, Other
• Walk me through a recent engineer session where saving to the PLM failed or was delayed, step by step
• Describe any middleware, scripts, or background services currently moving files or BOMs between CAD and PLM
• Which of the following best describes your current integration approach Options: No integration, manual processes, Native vendor connector only, Custom scripts or adapters, Commercial middleware platform, Periodic export/import
• What single compatibility or latency symptom in the save flow would stop a pilot before it begins

Where BOMs get lost and why

• What failure in your BOM flow today causes the most rework, change orders, or missed deliveries
• Give an example of a BOM that did not transfer correctly, what fields or structure failed, and what downstream impact that had
• Describe how your BOMs represent cross-discipline items, for example electrical and mechanical parts in one assembly
• How many new or revised BOMs does your engineering organization create in an average month Options: 0-10, 11-50, 51-200, 201-500, 500+
• Who must approve mapped BOM structures before a release moves to production Options: Engineering lead, PLM admin, Manufacturing/Operations, Quality, Product management, Other
• Where would you take action to stop a rollout if automated BOM mapping failed for a critical product family

Concrete facts that will make or break a pilot

• Name the environments, credentials, and access levels you can reliably provide for a pilot within your target timeline
• List the major CAD and PLM versions in use across teams you would include in the pilot
• Are APIs for your PLM and CAD tools documented and managed by an internal owner Options: Yes, documented and owned, Yes, available but no single owner, Partially documented, No APIs available, Unknown
• Give an example of network, middleware, or permission constraints that have previously slowed integration projects
• If a legal, security, or procurement review is required, who owns that approval and what is a realistic timeline for signoff

Known edge cases and the messy exceptions

• In your last PLM audit, which file types, assemblies, or processes failed most often to meet version or traceability standards
• Estimate how many BOM configurations or variants require special handling beyond a simple one-to-one mapping Options: None, 1-10, 11-50, 51-200, 200+
• Pick the top two causes that most frequently break automated imports or mappings Options: Custom attributes or metadata, Complex family tables, External parts with different IDs, Interdisciplinary BOMs, Unsupported file formats, Other
• Tell me about the longest-running integration-related support ticket and the business impact it caused
• Where would an unresolved edge case cause the most visible harm, for example audits, deliveries, or supplier interfaces Options: Production release delays, Quality escapes, Supplier mismatch, Compliance/audit failures, Customer delivery impact, Other

Other paths you are weighing

• Name the vendors, native connectors, or internal build options you are seriously evaluating right now and why each is appealing
• Has anyone inside your organization proposed building and maintaining an in-house connector, and if so what headcount and timeline did they estimate
• Pick the alternatives you are still considering Options: Keep current manual process, Use native vendor connector, Buy a third-party connector, Build in-house, Use a middleware platform, Other
• Under what conditions would your team keep the current approach instead of switching
• Would a multi-year maintenance commitment for CAD and PLM version upgrades be the single factor that moves you toward an external solution Options: Yes, No, Maybe, depends on cost, Not sure

How your team will call this a win

• Imagine engineers stop saving locally for three months after deployment, what three metrics would you check first to confirm success
• List the measurable acceptance signals you require to approve moving from pilot to production Options: Reduction in local saves, BOM transfer success rate, Average save latency under threshold, Support tickets per user, Revision compliance rate, Other
• Identify the role that will sign final acceptance and the minimum pass/fail tests they expect
• Within how many months of rollout would you expect to see positive ROI on this integration Options: 0-3 months, 4-6 months, 7-12 months, 12+ months, Not sure
• Could a pilot that meets your acceptance criteria be converted to a signed purchase within the same quarter, and if not what internal steps remain

Deciding the next move, realistic timeline and blockers

• Point to the earliest date when pilot users, test environments, and approvals could all be available to start work
• Choose the timeline that best matches your target for starting a pilot Options: Within 2 weeks, 4 weeks, 8 weeks, 12+ weeks
• Provide the names or roles of the internal stakeholders who must participate in the pilot and their responsibilities
• Are there procurement, legal, security, or compliance reviews that must finish before engineering work begins, and what are their lead times Options: None, Procurement only, Legal and procurement, Security/compliance only, Multiple reviews, timelines vary, Unknown
• Assuming the pilot proves the integration is invisible to engineers, what remaining approvals or budget steps would still prevent procurement from signing

• Integration Experience: CAD-in-Workflow Validation

• Confirm the current state and its cost to your team
• You confirm the live save-and-check-in completed without interrupting the engineer's CAD session and met your acceptable latency threshold.
• Provide two representative CAD files and one complex BOM example for pilot validation.
• Run live save-and-check-in using your CAD/PLM and a representative file
• You confirm the demonstrated BOM transfer preserved structure and metadata necessary for your PLM processes.
• Provide your acceptable latency and performance thresholds for save/check-in and BOM sync.
• Validate BOM transfer and metadata mapping on the same assembly
• Deliver a recorded run of the validated scenario with a short report on latency and BOM fidelity using the provided files.
• You agree on the remaining risks and the evidence required to sign off on a pilot, including version compatibility and edge-case handling.
• Provide an environment dependency checklist and a recommended pilot plan with milestone dates.
• Exercise edge cases: large assembly, version mismatch, and save latency
• Confirm measurable acceptance criteria
• Forced validation: does this match your definition of non-disruptive integration?

• Integration Experience: CAD-in-Workflow Validation
• Solution Experience Deck
• Solution Brief

• meeting
• slides
• document

• Install CAD client plugin
• Enable background save and auto check-in
• Map BOM structures and field transformations
• Implement metadata and attribute synchronization
• Configure revision control and release automation
• Deploy version-compatibility middleware
• Integrate multi-CAD data normalization
• Migrate local design files into the PLM
• Optimize save latency and performance tuning
• Configure PLM workflow automation
• Provision access, permissions, and roles
• Train engineers on embedded PLM workflows
• Execute pilot integration with target team
• Maintain connector versioning and upgrades

Install CAD client plugin

• Which CAD clients does your engineering team use that will need the plugin (name product families or tool types)?
• List the CAD file types (for example .prt, .asm, .sldprt) that the plugin must support for save/check-in operations.
• Do all engineering workstations allow local administrator installs, or do some require deployment via an enterprise tool (for example MSI via SCCM, MDM)? Options: Local admin install allowed, Enterprise deployment required, Mixed — some allow local admin installs
• Provide the standard plugin deployment method you prefer (MSI package, remote push, manual installer, other). Options: MSI package (enterprise push), Remote push (MDM), Manual installer per workstation, Other
• Who will own plugin installation tasks and validation on your IT or CAD admin team (name role or team)?

Enable background save and auto check-in

• Describe the native save workflows in your primary CAD tool where background save must operate (quick save, incremental save, autosave, assembly save).
• What is the acceptable additional latency for a save operation before engineers consider it disruptive (provide milliseconds or a range)? Options: <50 ms, 50-200 ms, 200-500 ms, >500 ms
• Are there file locks, external references, or session hooks in your CAD files (for example external XREFs, linked assemblies) that could block background check-in? Options: Yes, external references present, No, few or none, Not sure — need to audit
• Which user groups should be excluded from auto check-in (for example senior architects, external contractors, validation engineers)? Options: All users enabled, Exclude contractors, Exclude senior leads, Custom selection
• Describe the telemetry or logs you can provide to verify background save and auto check-in during pilot validation (for example save timestamps, check-in success/failure events).

Map BOM structures and field transformations

• Which CAD assembly-level BOM structures (top-level assembly, subassembly breakdown, part references) must map into your PLM BOM representation?
• Provide a sample assembly BOM export format you can share (CSV, XML, Excel) that reflects typical product complexity for mapping exercises. Options: CSV export, XML export, Excel export, Other / will upload sample
• What field-level transformations are required for part numbers, quantities, units of measure, and reference designators when translating the CAD BOM to PLM item attributes?
• What accuracy threshold (for example 98% field-level parity) will define acceptance for BOM mapping during migration or pilot? Options: 90%+, 95%+, 98%+, Custom — specify
• Designate the PLM or engineering role that will review and sign off the BOM mapping transformations.

Implement metadata and attribute synchronization

• List the CAD metadata attributes (for example material, finish, supplier, lifecycle state) that must synchronize to PLM item records.
• Which PLM attribute names differ from your CAD attributes and therefore require transformation rules (provide pairs or examples)?
• How frequently should attribute synchronization run to maintain parity (on save, every 15 minutes, hourly, nightly)? Options: On save (near real-time), Every 15 minutes, Hourly, Nightly
• Are there regulated attributes (for example RoHS flags, ITAR markings) that require an auditable synchronization trail? Options: Yes — regulated attributes exist, No regulated attributes, Not sure — need to review
• Identify the role that resolves attribute conflicts when CAD and PLM values disagree (for example PLM admin, part owner, BOM steward).

Configure revision control and release automation

• Describe your current revisioning scheme for CAD files and PLM items (examples: major.minor, date-based, custom numeric). Options: Major.Minor (e.g., 1.0, 1.1), Date-based, Custom numeric scheme, Other — describe
• Which PLM lifecycle states should trigger automated release and change order creation (for example ready-for-release, engineering-approved)?
• How should CAD file version increments map to PLM item revisions during automated release (for example file Save 1.2 -> PLM Rev B)?
• Do you require pre-release checks such as BOM completeness, CAD validation, or DRC before release automation proceeds? Options: Yes — require checks, No — release automatically, Partial — specify which
• Provide examples of your current automated release audit logs and the verifier role that currently approves releases.

Deploy version-compatibility middleware

• Which CAD and PLM versions (major and minor) in your environment must be supported by middleware adapters?
• Identify any legacy CAD file formats or PLM schema versions that require special handling or transformation.
• Do you have an internal change freeze window for CAD or PLM upgrades that the middleware must respect (for example year-end, quarter close)? Options: Yes — specific windows, No fixed windows, Unsure — will confirm
• Which middleware deployment model do you prefer for compatibility adapters (on-premises virtual appliance, cloud-hosted service, hybrid)? Options: On-premises appliance, Cloud-hosted service, Hybrid
• Who will run compatibility testing and validate middleware behavior when either CAD or PLM is upgraded (name role or team)?

Integrate multi-CAD data normalization

• Name the different CAD systems in your multi-CAD environment and the typical file types each produces.
• Provide examples of normalization rules needed between mechanical and electrical BOM structures (for example part grouping, reference designators reconciliation).
• Which attributes require canonicalization across CAD systems (for example material names, part number formats, unit systems)?
• Estimate the percentage of assemblies that contain parts designed in multiple CAD systems. Options: <10%, 10-30%, 30-60%, 60%+
• Provide the contact who will validate normalized multi-CAD BOMs during pilot runs (name or role).

Migrate local design files into the PLM

• How many local design files and associated BOMs are in scope for the initial migration into PLM (provide an approximate count or range)? Options: <1,000, 1,000-10,000, 10,000-50,000, 50,000+
• What percentage of migration completeness will you accept to sign off the migration phase (for example 95% field and file parity)? Options: 90%, 95%, 98%, Custom — specify
• Which local drives, network shares, or CAD vault folders contain files to be migrated (provide typical paths or server names)?
• Are there orphaned, duplicate, or unreferenced files that require cleansing before migration (for example duplicates by checksum, outdated revisions)? Options: Yes — cleansing needed, No — mostly tidy, Unknown — needs audit
• List the approver for the final seeded dataset in the PLM after migration (name or role).

Optimize save latency and performance tuning

• What is the current average save latency in your CAD sessions that engineers report as acceptable (provide milliseconds or typical description)?
• Which network topologies connect engineering workstations to the PLM server (LAN, VPN, MPLS, cloud) and is WAN acceleration in use? Options: LAN only, VPN/MPLS, Cloud-based connectivity, Mixed — provide details
• Provide the names of any existing performance monitoring tools you run on workstations or PLM servers (for example APM agents, network monitors).
• What performance threshold (for example added latency <200 ms per save) will be used to accept optimization for embedded save/check-in? Options: <50 ms, <200 ms, <500 ms, Custom — specify
• Name the recipients for performance alerts and outline the escalation path when save latency exceeds agreed thresholds.

Configure PLM workflow automation

• Which PLM workflows (for example change request, approval routing, engineering change order) should be triggered by integration events from CAD saves or releases?
• Provide the conditional rules that should trigger workflow transitions based on BOM or metadata states (for example BOM complete -> route to QA).
• How do you currently handle delegated approvals, parallel approvals, or approval timeouts in your PLM workflows?
• Are there external systems such as ERP or supplier portals that must receive notifications during workflow automation? Options: Yes — ERP, Yes — supplier portal, No external notifications, Other — specify
• Specify the workflow owner who will update automation rules after go-live (role or team).

Provision access, permissions, and roles

• How many role templates exist today for engineers, designers, contractors, and admins in your PLM (provide counts or ranges)? Options: 1-2, 3-5, 6-10, 10+
• Which permission attributes (for example edit, view, release) require restrictions for CAD files synced to PLM?
• Do contractors or external partners require temporary accounts or time-bound access patterns for CAD check-in/check-out? Options: Yes — temporary access required, No — only internal users, Mixed
• What is your preferred identity provider for single sign-on and account provisioning (SAML, OAuth, LDAP, SCIM)? Options: SAML, OAuth/OpenID Connect, LDAP, SCIM, Other
• Designate the approver for role mappings between CAD client users and PLM accounts (name or role).

Train engineers on embedded PLM workflows

• Which engineer roles need hands-on training for embedded save and check-in workflows (for example mechanical designers, electrical engineers)?
• Provide the typical session tasks engineers perform that training should cover (for example save, assemble, create BOM, request release).
• Do you prefer training formats such as live instructor-led workshops, recorded videos, or in-CAD guided walkthroughs? Options: Live workshop, Recorded video, In-CAD guided walkthroughs, Blended
• What success metrics for training will you track after deployment (for example adoption rate, reduction in local saves, support ticket volume)? Options: Adoption rate, Local save reduction, Support ticket reduction, Other
• Name your internal trainer or champion who will reinforce embedded PLM workflows post-training.

• Master Services Agreement (MSA)
• Statement of Work (SOW)
• Software License and Maintenance Agreement
• Order Form and Payment Schedule
• Service Level Agreement (SLA)
• Acceptance Certificate
• Change Order Agreement

• Go-live Health Check (week 1-4)
• First Measurement Review (week 4-10)
• Acceptance Gate — Outcome Validation (around day 90)
• Quarterly Operational Review

• Implement top-priority configuration or mapping change in the next maintenance window and report the impact.
• Restate acceptance criteria and numeric targets
• Document pass or conditional-accept status for each numeric target recorded in Solution Scope.
• Confirm incumbent system decommission or retention-read-only status and close the fallback habit.
• Agree remediation items with owners and target completion dates when criteria are conditional or unmet.
• Publish the acceptance decision and the per-criterion results to the shared workspace.
• Create the remediation task list with owners and due dates for any conditional items.
• Confirm archival or migration of legacy data and close the decommission checklist.
• Trend review for key metrics
• Confirm the solution remains on track to meet the targets recorded in Solution Scope or capture deviation plans.
• Resolve or re-prioritize the top persistent operational issues and assign owners for next steps.
• Agree any required training or configuration changes to drive adoption and reduce local-saved files.
• Publish the quarterly metric trend summary and updated issue backlog with priorities.
• Schedule targeted training sessions for cohorts with below-threshold adoption.
• Re-confirm success criteria and owners
• Confirm the integration components are installed and operational in the pilot environment.
• Document all open issues with assigned owners and target resolution dates.
• Agree an immediate remediation and verification plan to stabilize user experience.
• Publish deployment validation report and list of assigned remediation actions.
• Run targeted performance trace on save/check-in path and deliver findings within 3 business days.
• Enable monitoring alerts for connector errors and share access with the buyer's admin team.
• Present first measurement data
• Determine whether percentage of design files saved to PLM and average save latency in CAD are trending toward targets recorded in Solution Scope.
• Identify top 2 root causes for any metric shortfalls and assign corrective actions with dates.
• Confirm timeline and prerequisites for the acceptance gate meeting.
• Implement performance tuning changes and report measured latency after the change window.
• Run targeted pilot with power users in the largest CAD cohort to validate behavioral changes.
• Update mapping rules for the BOM edge cases identified and publish the change log.
• Deployment and integration validation
• Operational health and incident review
• Adoption breakdown by CAD tool and user cohort
• Present outcome data against each criterion
• Root cause analysis for metric gaps
• Document pass, conditional-accept, or fail per criterion
• Open issues and backlog triage
• Early adoption signals and usage patterns
• Agree corrective actions and owners
• Blockers and open issues triage
• Incumbent system wind-down confirmation
• User proficiency and training needs
• Agree remediation plan and acceptance decision documentation
• Immediate remediation plan