Why the Integrator Matters More Than the Components
Motionwell has completed over 100 automation projects in Singapore since 2010, working across medical devices, electronics, pharmaceuticals, food and beverage, consumer products, and warehouse logistics. One observation holds consistently: the success of an automation project depends more on the system integrator than on the components selected.
A Universal Robots cobot, a Keyence vision camera, and a Siemens PLC are excellent components. But they do not become a working production system until someone designs the mechanical fixtures, writes the control logic, configures the vision recipes, integrates the safety system, tests the complete workflow, and commissions the machine on the factory floor. That someone is the system integrator.
Choosing the wrong integrator leads to budget overruns, extended timelines, performance shortfalls, and ongoing reliability problems. Choosing the right integrator means the project delivers on time, meets performance specifications, and operates reliably for years.
This guide provides an 8-point evaluation framework for selecting a system integrator in Singapore. It is based on what we have seen work, and fail, across hundreds of projects in the region.
The 8-Point Evaluation Framework
Overview Table
| # | Evaluation Point | Why It Matters | Red Flag |
|---|---|---|---|
| 1 | Industry experience | Regulated industries require specific knowledge | “We can do anything” with no references |
| 2 | In-house design capability | Design quality determines system performance | Outsources all mechanical or software design |
| 3 | Robot brand portfolio | Multi-brand means application-driven selection | Locked to one brand regardless of application |
| 4 | Vision system expertise | Vision is the hardest subsystem to get right | Treats vision as “just a camera” |
| 5 | Control architecture standards | PLC platform and documentation quality affect long-term maintainability | No standard architecture, every project from scratch |
| 6 | Project management approach | Structured milestones reduce risk for both parties | Vague timeline, unclear payment terms |
| 7 | After-sales support | Machines break, response time matters | No local service team, depends on third parties |
| 8 | Certifications and standards | Quality systems indicate organizational maturity | No ISO 9001, no documented processes |
Point 1: Industry Experience
Not all automation is the same. A system integrator with strong experience in automotive stamping may struggle with pharmaceutical packaging because the regulatory framework, documentation requirements, and validation expectations are fundamentally different.
| Industry | Specific Knowledge Required |
|---|---|
| Medical devices | FDA 21 CFR Part 820, ISO 13485, IQ/OQ/PQ validation, cleanroom compatibility, biocompatible material selection |
| Pharmaceutical packaging | GAMP 5, 21 CFR Part 11, serialization, batch record integration |
| Electronics/semiconductor | ESD protection, cleanroom protocols, high-precision handling, micro-assembly |
| Food and beverage | HACCP, washdown design, food-grade materials, allergen management |
| Aerospace and precision | AS9100, tight tolerances, traceability, non-destructive testing |
| Warehouse/intralogistics | WMS integration, fleet management, throughput optimization, safety zoning |
What to ask: “Show me three completed projects in our industry with references I can contact.” If the integrator cannot provide industry-specific references, they are learning on your project.
Point 2: In-House Design Capability
The quality of an automation system is determined during design, not during assembly. An integrator with strong in-house design capability can iterate quickly, resolve design conflicts internally, and maintain design intent through manufacturing and commissioning.
| Design Discipline | What to Verify |
|---|---|
| Mechanical design | 3D CAD (SolidWorks, Inventor, or equivalent), FEA for critical structures, tolerance analysis for precision assemblies |
| Electrical design | Schematic capture (EPLAN, AutoCAD Electrical), panel design, cable routing, safety circuit design |
| Software/controls | PLC programming (Siemens TIA Portal, Mitsubishi GX Works, Rockwell Studio 5000), HMI development, motion control |
| Vision systems | Camera selection, lighting design, algorithm development and tuning |
| Simulation | Offline robot programming, cycle time simulation, virtual commissioning (if applicable) |
What to ask: “What percentage of your design work is done in-house vs subcontracted?” and “Can I meet the engineers who will design my system?”
An integrator who subcontracts all mechanical design to a third-party drafting house, or all PLC programming to a freelance programmer, has limited control over design quality and limited ability to make changes quickly during commissioning.
Point 3: Robot Brand Portfolio
System integrators generally fall into two categories: single-brand specialists and multi-brand integrators. Both models can work, but they have different implications.
| Approach | Advantage | Risk |
|---|---|---|
| Single-brand (e.g., FANUC-only shop) | Deep expertise in one platform, strong vendor relationship | May recommend their brand even when another is better for the application |
| Multi-brand | Selects the right robot for each application | Needs to maintain competency across multiple platforms |
Motionwell works with Universal Robots, ABB, FANUC, KUKA, Epson, and JAKA for industrial and collaborative robots, plus SIASUN, MiR, Standard Robots, and Youibot for mobile robots. This multi-brand approach means robot selection is driven by application requirements: payload, reach, speed, precision, safety mode, and cost.
What to ask: “For my application, which robot brand and model do you recommend, and why?” A good integrator provides a technical justification, not a default recommendation.
For more on robot platform selection, contact the Motionwell engineering team.
Point 4: Vision System Expertise
Machine vision is consistently the subsystem that causes the most problems in automation projects. Mechanical and electrical systems follow engineering rules. Vision systems depend on optics, lighting, surface properties, and algorithm tuning, variables that are harder to predict and control.
| Vision Capability | What to Evaluate |
|---|---|
| Camera platforms | Does the integrator work with Keyence, Cognex, Basler, or other industrial vision brands? |
| Lighting design | Can the integrator design and test lighting setups for your specific product surfaces? |
| Algorithm development | Does the integrator write custom vision algorithms, or only use vendor tools? |
| Defect detection experience | Has the integrator solved defect detection problems similar to yours? |
| Performance validation | Can the integrator demonstrate detection rates, false positive rates, and cycle times on your actual samples? |
What to ask: “Can you run a feasibility study on our product samples before we commit to the project?” A capable integrator will offer a paid or free feasibility study where they test camera/lighting combinations on your actual parts and demonstrate detection performance.
For more detail, contact the Motionwell engineering team.
Point 5: Control Architecture Standards
The PLC platform, control architecture, and documentation standards used by your integrator determine how maintainable the system is after handover. A well-structured control system can be understood, modified, and troubleshot by your maintenance team. A poorly structured one creates permanent dependency on the integrator.
| Standard Element | What Good Looks Like |
|---|---|
| PLC platform | Consistent use of one or two major platforms (Siemens, Mitsubishi, Omron, Beckhoff) with modular program structure |
| Program structure | Function blocks, state machines, clear naming conventions, comments in English |
| HMI design | Consistent screen layouts, alarm management, diagnostic screens for troubleshooting |
| Documentation | I/O list, PLC variable list, program flow description, alarm code table |
| Software backup | Complete backup on project USB/drive, version-controlled source code |
| Remote access | VPN or secure remote access capability for diagnostics (if desired) |
What to ask: “Can I see the control architecture documentation from a previous project?” and “What PLC platform do you standardize on?”
Point 6: Project Management Approach
Automation projects fail as often from poor project management as from poor engineering. Look for structured milestone management, clear communication protocols, and transparent commercial terms.
| Project Management Element | What to Evaluate |
|---|---|
| Milestone schedule | Defined milestones with dates: concept review, design freeze, FAT, delivery, SAT |
| Payment terms | Milestone-based payments tied to deliverables (not just calendar dates) |
| Change control | Formal process for evaluating cost and schedule impact of requirement changes |
| Progress reporting | Regular updates (weekly or biweekly) with status, risks, and issues |
| FAT process | Defined acceptance criteria, test protocol, and customer witness opportunity |
| SAT process | On-site acceptance criteria separate from FAT |
| Warranty terms | Clear warranty period, coverage scope, and response time commitments |
What to ask: “Walk me through your project lifecycle from contract signing to handover.” and “What is your change order process?”
Point 7: After-Sales Support and Parts Availability
The automation system will operate for 10 to 15 years. The integrator’s support capability during that period matters as much as the initial project delivery.
| Support Element | What to Evaluate |
|---|---|
| Local service team | Engineers based in Singapore who can respond within 24-48 hours |
| Spare parts availability | Critical spare parts stocked locally or available within 3-5 business days |
| Remote diagnostics | Ability to connect remotely for initial troubleshooting and guidance |
| Preventive maintenance | Structured PM program with scheduled visits and documented checklists |
| Software support | PLC program modifications, HMI updates, vision recipe adjustments |
| Upgrade path | Ability to modify or expand the system as production requirements change |
What to ask: “What is your average response time for emergency support calls?” and “Do you keep spare parts inventory for the components you specify?”
An integrator located in Singapore with in-house service engineers and local spare parts inventory can respond faster than one who relies on overseas support. For critical production lines, this response time difference translates directly to downtime cost.
Point 8: Certifications and Standards
Certifications indicate that an integrator has implemented formalized quality management, safety, and engineering processes. They are not sufficient proof of quality, but their absence is a meaningful warning.
| Certification | What It Indicates |
|---|---|
| ISO 9001:2015 | Quality management system is in place and audited |
| CE marking capability | Understands Machinery Directive requirements for safety design and documentation |
| ISO 12100 competency | Can perform risk assessments for automated systems |
| ISO 13849 competency | Can design and validate safety-related control systems |
| Industry-specific (ISO 13485, GAMP 5) | Has worked in regulated environments and understands documentation requirements |
What to ask: “Are you ISO 9001 certified?” and “Who performs risk assessments on your machines?”
Red Flags to Watch For
Based on Motionwell’s experience observing the Singapore automation market, these are the warning signs that should trigger additional due diligence:
| Red Flag | What It Usually Means |
|---|---|
| “We can automate anything” | Lack of industry focus means learning on your project |
| No FAT facility | The machine is tested for the first time on your factory floor |
| Cannot name PLC platform preference | No standard architecture, inconsistent quality |
| Price significantly below competitors (>30% lower) | Missing scope items, underestimated effort, or low-quality components |
| No reference customers willing to speak | Previous projects did not go well |
| Single engineer handles design and PM | Organizational risk, no knowledge backup |
| Requires full payment before delivery | Financial risk, limited leverage for acceptance |
| Cannot provide documentation samples | Documentation is an afterthought, not part of the standard process |
Questions to Ask During Evaluation
Use these questions during integrator evaluation meetings. The answers reveal more than any brochure.
Technical Questions
- “What is your standard PLC platform, and why?”
- “How do you handle vision system feasibility before committing to a project?”
- “Can I see a 3D model and electrical schematic from a previous project?”
- “How do you structure your FAT protocol?”
- “What is your approach to safety design and risk assessment?”
Commercial Questions
- “What is your standard payment milestone structure?”
- “How do you handle change orders during the project?”
- “What is included in your warranty, and what is excluded?”
- “What are your after-sales support response time commitments?”
Reference Questions
- “Can I visit a completed installation at a customer site?”
- “Can I speak with a customer who experienced a problem during their project and how it was resolved?”
- “How many projects have you delivered in my industry in the last three years?”
Why Singapore-Based Integrators Have Advantages
For manufacturers operating in Singapore, a locally based integrator provides specific advantages over international suppliers or regional alternatives:
| Advantage | Practical Benefit |
|---|---|
| Proximity | Face-to-face design reviews, site visits, and relationship building |
| Response time | Emergency support within hours, not days |
| Supply chain knowledge | Understands local component availability, customs, and logistics |
| Regulatory familiarity | Knows Singapore safety standards (SS 514), MOM requirements, and local fire code |
| Labor market | Recruits from local polytechnics and universities, stable workforce |
| Time zone alignment | No coordination delays for design reviews and issue resolution |
| IP protection | Singapore’s strong legal framework for IP and contract enforcement |
How Motionwell Fits This Framework
Evaluating Motionwell against the 8-point framework:
| Evaluation Point | Motionwell Position |
|---|---|
| Industry experience | 100+ projects across medical devices, electronics, pharma, food and beverage, consumer products, aerospace, and warehouse logistics. References include BD, Baxter, BIOTRONIK. |
| In-house design | Full mechanical (SolidWorks), electrical, PLC/HMI, and vision design in-house in Singapore. In-house CNC machining for precision parts. |
| Robot brand portfolio | 6 robot brands (Universal Robots, ABB, FANUC, KUKA, Epson, JAKA) plus 4 mobile robot brands (SIASUN, MiR, Standard Robots, Youibot). |
| Vision system expertise | Keyence and Cognex platforms. Feasibility studies with customer samples before project commitment. |
| Control architecture | Standardized on Siemens and Mitsubishi PLC platforms with documented program structures. |
| Project management | Milestone-based delivery with defined FAT/SAT protocols, change control process, and regular progress reporting. |
| After-sales support | Singapore-based service team, local spare parts for specified components, remote diagnostics capability. |
| Certifications | ISO 9001:2015 certified. McKinsey implementation partner for manufacturing transformation projects. |
Contact the Motionwell team to discuss your project requirements.
Using This Framework: A Practical Approach
Step 1: Define Your Requirements First
Before evaluating integrators, document your requirements clearly:
- Process description (what the machine must do)
- Performance targets (cycle time, throughput, quality)
- Industry and regulatory context
- Budget range
- Timeline constraints
Step 2: Create a Shortlist of 3-5 Integrators
Use industry directories (Singapore Automation Association, EDB supplier database), trade show contacts, and peer recommendations to identify candidates.
Step 3: Score Each Integrator on the 8 Points
| Evaluation Point | Weight | Integrator A | Integrator B | Integrator C |
|---|---|---|---|---|
| Industry experience | 20% | |||
| In-house design | 15% | |||
| Robot brands | 10% | |||
| Vision expertise | 10% | |||
| Control standards | 10% | |||
| Project management | 15% | |||
| After-sales support | 10% | |||
| Certifications | 10% | |||
| Weighted total | 100% |
Step 4: Visit Facilities and Check References
Visit the shortlisted integrators’ facilities. See their workshop, meet the engineering team, and review completed machines if available. Contact reference customers and ask about project execution, not just the final result.
Step 5: Compare Proposals on Total Value
Do not choose the cheapest proposal. Compare proposals on total value: scope completeness, component quality, documentation standard, warranty terms, and support commitments. The lowest-price proposal often generates the highest total project cost when change orders, rework, and extended commissioning are included.
Next Steps
If you are evaluating system integrators for an automation project in Singapore, Motionwell welcomes the opportunity to be included in your evaluation. Contact the team with your project requirements for a technical discussion and proposal.
For specific automation solutions, contact the Motionwell team to discuss custom machine design, machine vision inspection, or robotics integration for your project.