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Auto Vacuum Leak Detector
Auto Vacuum Leak Detector

RC-V12 Automatic Vacuum Decay Leak Detector

RC-V12 Vaccum Decay Leak Detector is a fully automatic, non-destructive leak detection system for the laboratory, utilizing vacuum decay technology. Integrating an advanced vacuum decay module with a collaborative robotic arm for automatic sample handling, the system performs complete testing cycles—including precise placement and return of samples to their original positions. It maintains the consistency of the detection data. The system represents the ideal solution for laboratory automation, significantly enhancing throughput and operational efficiency.

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Test Method

Application

Features

Technical Specifications

Operation

Industrial PC with intuitive, full Chinese interface

Test Station

One servo-controlled station (customizable per product)

Sample Tray

100-150 sample positions (configurable based on product specs)

Sample Handling

Stable robotic pick-and-place

Detection Method

Grid-positioning sequential testing with automatic data logging

Dimensions

1200 × 700 × 1500 mm (LxWxH)

Power Supply

100-240 VAC, 50/60 Hz

 

Why Choose the RC-V12 Automatic Vacuum Leak Detector?

 

Automated Sample Handling

The RC-V12 automatic vacuum decay leak detector uses robotic pick-and-place handling to transfer packages between the sample tray and vacuum decay test station.

This reduces repeated manual loading and unloading and helps maintain a consistent testing sequence across larger sample batches.

100–150 Sample Capacity

Interchangeable sample trays can accommodate approximately 100–150 samples, depending on package dimensions and configuration.

Different trays and tooling can be developed for different container formats, making the system suitable for pharmaceutical laboratories handling multiple products.

Automatic Data Recording

Each sample is tested according to its assigned tray position.

Test results can be automatically associated with the corresponding sample position, reducing manual transcription and simplifying batch data management.

Suitable for Batch Leak Testing

Compared with a manual laboratory vacuum decay leak detector, the RC-V12 is particularly suited to applications where dozens or hundreds of packages need to be evaluated under consistent test conditions.

Typical applications include:

● Laboratory batch testing
● Routine pharmaceutical QC
● Stability study sample testing
● Packaging process validation
● Small-batch production inspection
● CCIT method implementation

 

Suitable Pharmaceutical Packages

 

The RC-V12 automatic vacuum leak detector can be configured with package-specific test chambers, tooling and trays for suitable rigid and semi-rigid pharmaceutical packages, including:

● Pharmaceutical vials
● Prefilled syringes
● Cartridges
● BFS containers
● Eye drop bottles
● Nasal spray bottles
● Pharmaceutical bottles
● Other sealed rigid or semi-rigid packages

Different container sizes and shapes can be accommodated through interchangeable chambers, fixtures and sample trays.

 

Need Automated Vacuum Leak Testing?

If manual vacuum decay testing is limiting your laboratory throughput, the RC-V12 provides an automated solution for pharmaceutical batch leak testing.

Send Zholion your package type, dimensions, batch size and required testing throughput. We can evaluate the appropriate sample tray, test chamber and vacuum decay configuration for your application.

Contact Zholion for RC-V12 Pricing & Automation Evaluation.

More Information

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  • Frequently Asked Questions
  • Q:

    How does ECA stipulate about visible particulates for injectable drugs?

    A:

    4.3 What aspects should be considered when assessing artificially created test kits, and how should their suitability be justified?

    Artificially created test kits are often used when representative production samples are unavailable, technically unsuitable, or cannot be obtained in sufficient quantity for qualification, training, or evaluation purposes.

    Their suitability should be assessed based on the inspection technology used and the required level of representativeness. Artificially created defects and conforming units should exhibit optical, physical, and mechanical characteristics comparable to those of the real product under routine inspection conditions.

    For AI-based inspection systems, higher requirements regarding representativeness may apply, as these systems often utilize very subtle features and characteristics to distinguish between acceptable and defective units. For example, a genuine lyophilized cake with crystalline reflective properties can generally be distinguished from a matte plaster-based imitation if these differences are visible in the image data.

    If artificially created defects differ in relevant characteristics—such as texture, reflectivity, contrast, size, movement behaviour, or other optical or physical properties—there is a risk that the neural network learns features introduced by the artificial manufacturing process rather than the actual defect itself. Likewise, particle detection may be influenced by factors such as viscosity, turbidity, fill height particle size, or particle contrast. These factors should therefore be considered when assessing the suitability of artificially created test kits and may also affect the performance of conventional rule-based inspection systems.

    Conventional rule-based systems are generally less susceptible to such effects because they evaluate predefined image features rather than learning complex representations. Although these approaches are often less selective and may be less suitable for highly challenging inspection tasks, they typically demonstrate greater robustness against variations or realism drifts within artificially created test kits.

    Consequently, the suitability of artificially created test kits should always be justified and documented with regard to the inspection technology and the intended application. The decisive criterion is not whether defects are artificially created or taken from routine production, but whether the test kit reliably reproduces the behaviour of the final drug product under the selected inspection strategy.

  • Q:

    Can one instrument test different package sizes?

    A:

    Yes. Different package sizes and shapes can be tested by changing the test chamber, fixture or sample holder.

  • Q:

    Can the system test pharmaceutical vials?

    A:

    Yes. Vacuum decay testing can be configured for vials containing powder, lyophilized products or medicinal liquids. A package-specific chamber is normally required.

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