Executive Summary
DMG MORI was executing a complex, multi-phase integration between DMG and MORI SEIKI across several regions, entities and operating models. North America and Mexico played a leading role because the region had to unify operational procedures, align with internal control requirements (including COSO-oriented expectations) and resolve critical execution issues in international supply chain, machine delivery, installation, applications engineering, service and spare parts.
The engagement went far beyond documenting processes. It focused on transforming fragmented operational knowledge into a controlled procedural and information architecture capable of supporting global machine delivery from Japan, Germany, China, the United States and other nodes into highly demanding industrial customers in Mexico and North America. DMG MORI’s machines—CNC equipment, robotics and advanced manufacturing systems—are mission-critical for customers in sectors such as automotive, aerospace and advanced manufacturing; any delay in logistics, installation, applications support or commissioning directly affects production readiness and customer schedules.
Under the legacy Corbera Networks / Acción Integral capability (now aligned with JUBAP.Net’s information management doctrine), the team supported a multi‑year program of procedure design, international knowledge transfer, compliance preparation, information control and operational follow-up. Reported outcomes included:
- Approximately 4x sales volume growth during the 2013–2016 period
- Approximately 26% reduction in project start-up / commissioning delays
- SLA improvements across most monitored service areas, with detailed figures remaining confidential
These results were supported by a stronger control of project information across logistics, service, applications, spare parts, finance and project administration.
1. Business Context
DMG MORI’s regional operation had to coordinate a highly complex industrial delivery model in the middle of a multiyear integration of Japanese and German entities into a unified global brand. Factories produced and shipped advanced machines, but much of the applied engineering, logistics coordination, installation, service readiness, spare parts management and customer-specific configuration had to be managed regionally in the Americas.
This created a distributed operating model in which:
- Factories in Japan, Germany, China, the United States and other locations provided partial production and shipping information.
- Regional teams coordinated import/export documentation, customs, logistics, on‑site delivery, installation and customer preparation.
- Applications teams needed a deep understanding of each customer’s production requirements and constraints.
- Service teams handled installation, commissioning, training and early-life support.
- Spare-parts teams supported warranty, maintenance and urgent “line-down” incidents.
- Finance and controlling ensured approvals, credit conditions, payment status and internal control compliance (COSO‑aligned).
Operational procedures in logistics explicitly stated that their objective was to enable personnel to meet corporate objectives for efficient national and international machinery transportation, and to serve as a basis for induction and development of related staff. This reflects that procedures were designed as knowledge-transfer and operational-control instruments, not as generic SOPs.
2. Core Problem
The core problem was not “process documentation”. The real challenge was:
How to create a unified operational information and control model across a post-merger, multi-region, multi-entity industrial environment, while maintaining continuity of mission-critical customer deliveries.
Operational risks included:
- Incorrect or incomplete capture of customer requirements
- Mismatches between customer production needs and machine configuration
- Delays in factory order confirmation and export license approval
- Incomplete export/import documentation and customs issues
- Misaligned logistics and installation schedules
- Service technicians not aligned with delivery windows
- Missing accessories or spare parts at start-up
- Lack of clear customer acceptance evidence and ambiguous warranty start dates
- Poor visibility of project status across departments
- Duplicated or inconsistent documentation between teams
- Internal-control gaps during post-merger integration (segregation of duties, approvals, evidence)
The supply chain was particularly sensitive because machines were delivered under international logistics conditions (often EXW at plant), and the regional operation had to orchestrate downstream logistics, customs, installation and service within tight customer ramp‑up schedules.
3. Mission-Critical Nature of the Work
This case must be framed as mission-critical industrial delivery, not back-office process optimization.
DMG MORI machines are embedded in the production backbone of customers. For automotive, aerospace and advanced manufacturing clients, delays or failures in installation and commissioning can directly impact:
- Production launch and ramp-up
- Line balancing and takt-time commitments
- Quality validation and capability approval
- Customer delivery schedules and contractual KPIs
- Tooling readiness and try-out sequencing
- Run-off acceptance and sign-off milestones
- Spare parts availability and mean time to repair
- Warranty activation and risk allocation between parties
Installation procedures captured this criticality: they included customer verification in ERP, shipping and packaging notifications from the factory, installation planning, service team assignment, on-site unloading supervision, photographic evidence, commissioning checklists, detailed daily service reports, customer signatures, warranty activation steps and structured document storage in project folders. The result was an operational tracking layer that connected physical delivery with auditable evidence and internal control.
4. Scope of the Intervention
4.1 Procedure Unification After Merger
Post-merger integration required common procedures across areas that previously operated with different regional practices, cultures and factory interfaces. Sales, sales administration, purchasing, accounting, controlling, applications, logistics, spare parts, installation, post‑sales service and project administration had to be treated as connected components of a single delivery system.
The work included:
- Capturing actual practices across multiple departments
- Writing and iterating procedures with local managers
- Aligning approvals and responsibilities with internal control expectations (COSO)
- Structuring documents and shared folders by project
- Defining cross-functional handovers and checklists
- Implementing version control and change management
- Ensuring that procedures could serve as induction and training tools for new staff
4.2 International Logistics Control
The logistics procedures covered the full flow from quotation support to final delivery at customer site. Controlled points typically included:
- Support to transport and handling quotations during sales phase
- Review of purchase order annexes and overall project budget
- Project planning with logistics milestones
- Purchase orders to DMG MORI Americas and to factories
- Export license processing and compliance checks
- Order confirmation and promised delivery week from factories
- Weekly project follow-up meetings
- Packaging notifications with photos from the plant
- Preselection of forwarders and carriers
- Customs broker coordination
- Handling of EUR1, commercial invoices and certificates of origin
- Bill of lading issuance and verification
- Shipment notifications to the customer
- Customs entry, import documentation and local transport
- Arrival at customer site and supervised unloading by service personnel
This flow effectively bridged factory delivery terms (for example, EXW or DDP to plant) with the complexity of regional import, last‑mile logistics and on-site readiness.
4.3 Applications Engineering and Customer-Specific Production Requirements
Applications engineering procedures demonstrate that the work went far beyond logistics. Applications teams were responsible for understanding the customer’s production problem and translating it into machine configuration, tooling, workholding, programs and acceptance criteria.
Procedures typically covered:
- Review of customer RFQs and technical data
- Collection and validation of project and part information
- Pre‑sales applications activities and feasibility analysis
- Engineering requests and coordination with factories
- Working‑area verification and machine capability diagrams
- Process studies and cycle‑time estimation
- Machine quantification based on required output and available time
- Design and supervision of workholding and tooling solutions
- Budgetary quotations for tooling, workholding and start‑up support
- Cutting tests, run‑off planning and on‑site process debugging
- Installation, programming and operator training
- Statistical process control evaluation where required
- Final acceptance and structured project documentation storage
These flows positioned DMG MORI’s regional teams as applied engineering units, not just intermediaries for machine delivery.
4.4 Installation, Commissioning and Warranty Control
Installation procedures connected logistics, service, applications and project administration into a controlled commissioning lifecycle. Key elements included:
- Customer and project verification in ERP
- Verification of equipment photos and packaging before shipping
- Delivery notifications and pre‑installation communication to the customer
- Technician scheduling in the service planning system
- Creation of daily service reports and incident tracking
- Supervision of unloading, including safety and damage control
- Photographic evidence with clear site and date identification
- Detailed installation and commissioning checklists
- Customer signatures on acceptance documents
- Warranty start‑date entry in ERP and linkage to signed evidence
- Escalation paths to project administration and management for deviations
- Systematic storage of signed documents in project‑specific folders
By tying warranty activation to signed evidence and documented steps, the procedures aligned operational work with internal control and risk management.
4.5 Post-Sales Technical Service
Post‑sales service procedures defined how the regional operation maintained and protected customer production capacity after installation. They typically included:
- Preventive maintenance program design and sales
- Technical support channels (phone, email, remote)
- Customer and machine identification in ERP
- Incident registration and prioritization
- Warranty and export-license verification before service or parts
- Credit and overdue receivables checks
- Service quotation and approval flows
- Technician scheduling and dispatch
- Daily service reports, including root cause and actions
- Customer signature on visit reports
- Spare parts coordination and verification
- Final acceptance and closure documentation
This ensured that service operations remained integrated with finance, legal/export controls and customer obligations.
4.6 Spare Parts Administration
Spare parts procedures ensured continuity of machine operation and protected customer uptime. Typical steps included:
- Quotation requests from customers or internal service teams
- Part identification using technical manuals and factory data
- Warranty status verification and return flows for defective parts
- Export-license checks for sensitive components
- Credit status verification before sales of spares
- Price and stock verification in ERP or distributor systems
- Sourcing from local inventory, regional distribution centers or factories
- Purchase orders to distributors or factories
- Carrier selection and customs coordination
- Physical verification and inventory update
- Release and delivery to customers or service technicians
- Tracking of shipments and follow‑up with customers
- Management of warranty returns and credits
This flow combined global supply chain complexity with local responsiveness.
5. Compliance and Internal Control Dimension
The integration program also had a significant compliance and internal-control dimension, aligned with COSO principles for control environment, risk assessment, control activities, information & communication and monitoring.
From an internal control perspective, procedures needed to:
- Clarify responsibilities and approval authorities
- Ensure segregation of duties where appropriate (sales vs. credit vs. logistics vs. service)
- Provide traceable evidence of key decisions and transactions
- Safeguard assets and sensitive information
- Support accurate and reliable financial reporting (e.g., revenue recognition linked to delivery and acceptance)
- Demonstrate adherence to applicable legal and regulatory requirements
By connecting each process step to a responsible role, system reference and evidence requirement, the program effectively built a practical internal-control layer over the operational supply chain.
6. Information Management Problem
Beneath the procedural layer, the deeper issue was information fragmentation. Each project required coordinated information across:
- Sales and sales administration
- Project administration and controlling
- Logistics and customs brokers
- Applications engineering
- Service and spare parts
- Factories and distribution centers
- Finance, credit and risk functions
- The customer’s own engineering, purchasing and operations teams
Without a structured project information model, the same project could generate disconnected emails, spreadsheets, photos, quotes, order confirmations, customs documents, commissioning reports, service tickets, spare-parts records, warranty data and acceptance signatures—without a single operational “source of truth”.
The intervention therefore emphasized:
- Standardized project folder structures
- Evidence categorization by process and milestone
- Clear naming conventions and version control
- Linkage between project documentation and ERP/commercial records
- Use of procedures as the “index” to where information lived and who owned it
In practice, this was information management as operational tracking: information was treated as the trace of real operations, not just archived paperwork.
7. JUBAP.Net / Legacy Team Approach
The approach taken by the legacy Corbera Networks / Acción Integral team—now aligned with JUBAP.Net’s doctrine—can be summarized in five elements:
- Capture Real Operations
Map how logistics, applications, service and spare parts actually worked, including informal handovers, exception paths, escalation points and evidence expectations. - Convert Tacit Knowledge into Procedures
Work with managers and senior operators to translate tacit knowledge into procedures that could be used for induction, cross‑training and post‑merger alignment. - Connect Procedures to Systems and Evidence
Ensure procedures referenced actual systems (ERP, planning tools, reporting tools) and defined exactly what evidence had to be produced, by whom and where it had to be stored. - Build Control Points and Escalations
Introduce time-bound reviews, managerial approvals, escalation paths, deviation handling, customer signatures, export and credit checks, and other control activities aligned with internal-control expectations. - Support Multiyear Adoption
Treat the program as a multi‑year transformation, not a one‑off documentation effort—maintaining follow‑up, refinement and alignment with evolving organizational structures and factory interfaces.
This is structurally consistent with JUBAP.Net’s emphasis on using information management as a live operational decision surface, not as a static repository.
8. Results
8.1 Sales Volume Growth
During the 2013–2016 period, the regional operation reportedly multiplied sales volume by approximately four. This growth was driven by broader market and commercial dynamics, but the procedure and information‑control program supported it by:
- Reducing execution friction and rework
- Enabling teams to manage a higher volume of complex projects in parallel
- Providing clearer visibility into project status and bottlenecks
8.2 Reduction in Project Start-Up Delays
Project start‑up and commissioning delays were reportedly reduced by approximately 26%, supported by clearer handovers between logistics, service, applications, spare parts and project administration, and by earlier detection of missing information or components.
8.3 SLA Improvement
SLA performance improved across most monitored service and operational KPIs, although detailed SLA data remains confidential. The combination of clearer procedures, better information flows and stronger control points contributed to more predictable service and support performance.
8.4 Improved Internal Control Readiness
The procedure model created a more robust internal-control posture by connecting activities, responsible roles, approvals, system references, evidence storage and escalation paths, consistent with COSO-style expectations for control activities and information & communication.
8.5 Better Knowledge Transfer and Onboarding
Procedures were explicitly designed to serve as a basis for induction and personnel development. This improved onboarding for new staff, reduced dependency on a few experts and made post-merger integration more resilient.
8.6 Scalable Project Information Model
The standardized project folder and evidence model allowed the organization to scale project volume while preserving traceability. Each project could be reconstructed from its documentation with a clear link to operations, financials and customer commitments.
9. Strategic Case Study Positioning
DMG MORI — Post-Merger Industrial Integration and Mission-Critical Supply Chain Control
DMG MORI mission-critical information management and post-merger integration program for advanced industrial supply chains, where procedures became the control layer connecting factories, applications engineering, logistics, service, spare parts and customer production readiness.
JUBAP.Net / JUBAP.us Positioning
JUBAP.Net is an advanced AI development center and applied science engineering team with continuity in operational intelligence since 2005. Formed as a Nokia employee spin-out by former Nokia Research & Development engineers from the Barcelona labs—specialists in distributed computation, communications and early smartphone platforms—the organisation focuses on mission-critical systems, operational intelligence and high-impact interventions. With a global operating model, a core base in Mexico and a virtual rapid-deployment unit in San Francisco, USA (jubap.us).
JUBAP Business Units apply frontier and proprietary methodologies to enable intelligence-driven transformation in some of the world’s most demanding environments.