Home Textiles

Large-format continuous material feed usually favors Line-Scan Camera: Continuous imaging along the material travel direction, followed by frame-by-frame stitching. A single area-scan frame cannot cover the full width and has insufficient edge resolution.

Yes. The motif must be modeled by period, with the normal jacquard / print subtracted as background so that only residuals trigger an alarm. Pattern misalignment is another type of acceptance criterion, detected with the pattern repeat as the datum.

Yes. Speed fluctuation changes the equidistant sampling of line-scan imaging and must be corrected with encoder feedback, otherwise dimensional measurement and position marking shift. The speed range must be confirmed during the solution stage.

Determined by the line-scan resolution and the area field of view; it must be derived backward from the minimum defect size and measured. To be added.

It relies on consistently stable imaging and algorithms, together with defect position coordinates marked for cutting avoidance. For long-term operation, light sources must be calibrated periodically so that brightness decay does not cause acceptance criteria drift.

Quantify color difference against a standard sample from the same dye lot rather than an absolute color value across lots. Establish the reference when each lot arrives.

Stitched seams are a risk area, and the overlap and geometric alignment of adjacent frames must be ensured. The stitching algorithm and calibration quality directly determine whether escapes occur at the seam, and this must be verified with real images.

the implementation constraints commonly seen in this industry center on: "Large formats require line-scan cameras with frame-by-frame stitching, and seams are prone to misalignment"; "Jacquard / printed backgrounds are strongly periodic, so defects share the same frequency as the texture"; "Fluctuation in material feed speed affects equally spaced imaging and dimension measurement". these constraints affect both the imaging solution and the cycle-time design. Normally a sample trial is needed to validate before the configuration is finalized.

For large-area continuous inspection, we recommend integrating it into the winding / fabric inspection step, marking defect positions with roll-length coordinates so that later cutting can avoid them and whole-roll scrapping is reduced. The material feed speed must be synchronized with the line-scan trigger, and when the speed fluctuates, encoder feedback corrects for evenly spaced imaging.

Common forms include: "advanced materials inspection equipment", "AI vision cut-piece inspection equipment", "new energy pouch material inspection equipment". The specific machine model and quantity depend on the inspection area, the minimum defect size and the line cycle time, and must be confirmed according to the site conditions.

The most common are: "recognition of weaving defects, yarn breakage and holes"; "extracting defects from the periodic texture of jacquard / printed patterns"; "checking print misalignment and inaccurate pattern matching." Which process steps to actually instrument depends on the cost of defects escaping downstream and the cost of rework — the later a defect is found, the higher the cost.

Please provide home textile fabric samples (including samples with weaving defects, print misalignment, and stains) along with the width, material travel speed, and roll length. In general, as long as the acceptance criteria can be stated clearly, defects image clearly and consistently, and the cycle time matches the field of view, the project is feasible.

Accuracy is not a fixed value that holds regardless of conditions. To be added — the minimum detectable size depends on the combination of field of view and camera resolution, and is also affected by illumination, lens and algorithm; the configuration must be derived from your minimum defect size and validated by measurement.