- Moges
- 2026-11-14
How to choose a non-standard automation project progress tracking tool? Comparison and implementation steps for 4 types of solutions in 2026.
Non-standard automation projects share a common pain point: once a contract is signed and equipment is delivered, it's difficult for the owner and project manager to clearly identify "exactly which step is delayed and how much time remains to meet the deadline." A single day of downtime represents a significant loss, and progress is typically tracked through sifting through messages in WeChat groups and relying on verbal updates from the workshop supervisor. However, delays are often not discovered until several weeks have passed. A tool that can display the status of each operation, each piece of equipment, and each responsible person in real-time on a desktop is becoming a critical factor in determining whether a non-standard project can be delivered on schedule.
Executive Summary:
- Non-standard automation project progress tracking tool: Consolidate real-time status of processes, equipment, personnel, and materials into a single dashboard.
- Moges: Over 200 customers have reported that project delays have decreased from an average of 22 days to 7 days after implementation.
- Within 5 minutes of on-site reporting, the dashboard should be refreshed. Any anomalies should be flagged and the responsible person notified within 1 hour.
- Single-machine version: 3 days to launch. Full-process version: 2–4 weeks. First project: Visible revenue improvement within the initial project cycle.
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The following table compares the three common methods of progress tracking available on the market, making it easy to identify which category best suits your needs. Manual methods and Excel spreadsheets can still be used effectively for projects with fewer than 5 items. However, when managing multiple custom projects (more than 8) and increased cross-departmental collaboration, data delays and inconsistencies become the norm.
| Tracking method | Data refresh frequency | Slow response speed | Suitable for |
|---|---|---|---|
| Verbal communication + WeChat group | Same day or next day | Discover and Delay | Simultaneously, with a maximum of 3 projects. |
| Shared Excel Spreadsheet | Half a day to one day | From a few hours to a day. | 3–8 projects, single workshop |
| Professional Progress Tracking System | Within 5 minutes | 1. Alert within 1 hour | More than 8 projects, cross-workshop |
As can be seen, the choice of method is not determined by the size of the company, but rather by the number of non-standard projects being run and the complexity of cross-departmental collaboration. When the number of projects increases, issues such as Excel version conflicts, delays in assigning responsibilities, and inconsistent data definitions repeatedly arise. These are precisely the core issues that progress tracking tools are designed to address.
1. Non-standard project schedule challenges
Non-standard automation projects often experience delays not due to a single process slowing down, but rather due to broken information chains. A change in the design drawings is made, but the workshop continues to process according to the old version; a standard component order is delayed, but the project plan is not updated accordingly; a mismatch in dimensions is discovered during the assembly phase, and the issue is only revealed during a meeting two days later. The individual information gaps may seem small, but when combined, they result in delays of two to three weeks.
A deeper reason is that the processes involved in non-standard projects are inherently dynamic. Standard products can have their manufacturing processes finalized in advance, while non-standard equipment often requires adjustments and modifications as the project progresses. A change in one process can impact the subsequent three to five processes. Without real-time progress data, project managers are forced to rely on guesswork, leading to delays. This is why many companies struggle to resolve progress issues even after implementing ERP systems. ERP systems primarily manage orders and inventory, but do not directly monitor the real-time status of each process in the workshop.
Moges, established in 2012, has been specializing in non-standard equipment management software for 14 years. Within the 200+ clients it has served, over 70% of project delays are not due to equipment limitations, but rather to a lack of timely information synchronization to decision-makers. By addressing this information gap, project delivery cycles are naturally shortened.
2. Manufacturing ERP/MES: What are these tracking tools really monitoring?
A comprehensive and reliable tool for tracking the progress of non-standard automation projects, which tracks four specific elements rather than a misleading "project overall completion percentage": work processes, equipment, personnel, and materials.
At the work order level, each manufacturing or assembly operation must have a clearly defined start time, planned completion time, actual completion time, and the current responsible person. The dependencies between work orders must also be clearly defined, so that if one work order is delayed, the system can automatically calculate the impact on subsequent work orders, rather than relying on the project manager to manually identify the impact.
At the equipment level, it is necessary to know which work order each CNC, EDM, and assembly workstation is currently processing, and when it is expected to be available. Equipment is a bottleneck resource, and one of the most common reasons for delays in non-standard projects is waiting for equipment. Without visibility into equipment utilization, it is impossible to create effective schedules.
From a personnel perspective, each technician, assembler, and engineer should be able to see at a glance what tasks they have, and where they are blocked. Non-standard projects that heavily rely on key personnel will inevitably experience delays if a single engineer is assigned to multiple projects simultaneously.
At the material level, the status of standard parts, outsourced parts, and custom parts must be linked to the production process. The absence of a single screw can bring an entire assembly line to a standstill. However, many companies' material status is only recorded in the procurement Excel, which the workshop cannot see.
The data from these four dimensions is aggregated in real-time on a single dashboard, allowing project managers to truly "see" the project status, rather than relying on guesswork. The Moges PMS9 progress dashboard is designed according to this logic. It integrates data from four layers: processes, equipment, personnel, and materials, and automatically highlights anomalies in red and notifies the responsible parties.
3. Manufacturing Implementation Roadmap
Implementing a production progress tracking tool is not simply about purchasing and installing software. The key is to ensure that the personnel in the workshop are willing to report, and that the information they provide is accurate. The implementation process can be broken down into three steps.
The first step is to break down the project into trackable, granular tasks. If the granularity is too coarse, it's meaningless; a "assembly" task spanning two weeks would make it impossible to identify problems. If it's too fine, workers would find it too burdensome to report. The recommended approach is to break down tasks into those that can be completed by one person at a workstation in half a day to one day, providing sufficient detail without creating excessive reporting burdens.
The second step is to select a reporting method with the lowest resistance. Options include PDA scanning, workshop touchscreen reporting, and mobile reporting. The key is to allow workers to complete the process with just two clicks, without requiring them to fill out numerous fields. Moges' approach is to keep the reporting interface limited to only the three essential fields: operation, quantity, and status. All other information is automatically populated.
The third step is to establish an exception response mechanism. When the system detects that a specific operation is delayed beyond the pre-defined threshold, it automatically sends a notification to the responsible person and the project manager, rather than waiting for the weekly meeting. The threshold can be set according to the type of operation, with tighter thresholds for critical path operations and looser thresholds for non-critical path operations.
The most common mistake during implementation is to initially plan to roll out the ERP/MES system across the entire company. We recommend starting with a pilot project on a specific non-standard project to test the complete workflow, from work order creation to dashboard monitoring and exception alerts. This allows project managers and workshop supervisors to see the real-world results and gain confidence. This approach minimizes resistance and facilitates internal support.
4. Key factors to consider when choosing
There are many software options available for production management, but when choosing a solution for tracking the progress of non-standard automation projects, it's important to focus on these four key indicators.
Firstly, the system must allow for flexible configuration of dependencies between operations. For non-standard projects, the process route often changes. If the system requires all dependencies to be defined in advance and cannot be easily modified mid-process, it will be very difficult to use. A good system should support the ability to adjust the order of operations and dependencies at any time, and automatically recalculate the critical path after adjustments.
Secondly, the equipment load view must be real-time. It should allow users to see the current job, pending jobs, and estimated idle time for each piece of equipment, which is crucial for determining whether the scheduling is optimal. Systems that only provide historical equipment utilization data without real-time load information offer limited assistance in tracking progress.
Third, the system must allow for the customization of exception alerts. Different projects and different processes have different tolerances for delays. The system should support setting different alert thresholds and notification recipients based on project type and process type, rather than a one-size-fits-all approach.
Fourth is the integration capability with existing systems. If a company already has ERP systems for order management, inventory management, and material tracking, the progress tracking tool must be able to integrate with these systems to avoid redundant data entry. Moges PMS9 provides standard interfaces that can be seamlessly integrated with mainstream ERP and inventory management systems, eliminating the need for a complete overhaul.
Conclusion
Managing the progress of non-standard automation projects is essentially a race against information gaps. The ability to have real-time visibility into the status of processes, equipment, personnel, and materials is crucial for identifying and resolving issues before they lead to delays. A suitable progress tracking tool is not a silver bullet, but it enables management decisions to shift from "guessing based on experience" to "data-driven decision-making," which is a critical step for non-standard businesses to transition from a loose to a lean approach.




