Multi channel crosstalk: Check if the grounding of the coaxial cable shielding layer is good to avoid strong electrical interference.
6.3 Digital I/O unresponsive or damaged
Measure the DI terminal voltage with a multimeter and confirm that it is within the logic high/low range.
Check if the DO output is configured correctly and if the external load is within the driving capability (overload may cause the output tube to burn out).
Is the isolated power supply functioning properly (if the external VDD is not connected, the output cannot be effectively driven).
6.4 System overheating or fan noise
Monitor the CPU temperature in BIOS hardware monitoring. If it exceeds 70 ° C, check the heat sink and fan (system without fan design? Confirm whether there is actual active heat dissipation).
Clean the dust from the ventilation opening and ensure that the air inlet is unobstructed.
If exposed to high temperatures for a long time, consider reducing the acquisition frame rate or optimizing algorithms to reduce CPU load.
6.5 Storage device recognition failure
CF card or SATA hard drive not recognized in BIOS: Check the connection cable and whether the CF card is inserted properly (note that the CF card has direction).
If AHCI mode cannot be recognized, you can try IDE compatibility mode (GM45 supports AHCI, but some CF cards only support IDE mode).
Is the power supply to the hard drive sufficient (is the SATA power cable secure).
Software maintenance and system backup strategy
7.1 Suggestions for mirror backup
Create a complete image of the system disk (CF or SSD) using Ghost or Clonezilla and store it on an external USB hard drive.
When the system crashes, it can quickly recover to a new storage medium, reducing production line downtime.
7.2 Application Log Recording
Record abnormal events (such as collection timeout, I/O status changes) in the program to facilitate the location of intermittent faults.
EEPROM (if onboard) can be used to store key configuration parameters to ensure that they are not lost during power outages.
7.3 Long term stability testing
It is recommended to conduct a 72 hour aging test on the newly deployed system to simulate actual workloads, monitor temperature and frame rate stability.
Test the response delay of digital I/O to ensure compliance with timing requirements (such as the delay from triggering to acquisition).
Upgrade and replacement considerations
As an analog vision platform, the EOS-2000 has a long lifecycle. If you need to upgrade to higher performance or digital interfaces, you can consider using the same brand's EOS-1200 (GigE Vision) or EOS-1300 (USB3 Vision). But in the case where existing analog camera assets cannot be discarded, EOS-2000 is still the most cost-effective upgrade solution, as it can directly connect old analog cameras to modern PC architecture processing systems without the need to replace cameras and lenses.
Suggestions for maintaining spare parts:
Reserve at least one CF card or SSD of the same model as a spare system disk.
Keep the original driver CD or ISO image to avoid driver loss caused by network download difficulties.
Safety compliance and environmental disposal
EOS-2000 complies with CE/FCC Class A and RoHS directives, and must be disposed of according to electronic waste disposal procedures and handed over to professional recycling agencies.
The replacement of lithium batteries (used for RTC) requires the use of the same model and proper disposal of waste batteries.