3D Printing Table Detection Reference Marks for High-Density Placement
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Conventional three-dimensional object printing systems are low in productivity due to the need for rotational control and the limitation of densely disposing objects on a printing table, which reduces printing efficiency and requires time and effort to avoid hiding detection reference marks.
Innovation Solution
A three-dimensional object printing system with a printing table featuring multiple detection reference marks, detecting means to determine object positions and orientations, and printing data generating means to create data for high-density object placement, allowing for efficient printing without rotational control.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If a single detection reference mark is used on the printing table, then the system can accurately detect object positions and orientations, but the three-dimensional objects cannot be densely disposed on the printing table, limiting printing efficiency
Solution Approach 1:
The printing table is divided into multiple regions, each with its own detection reference mark. This segmentation allows multiple objects to be detected and printed simultaneously in different regions, increasing the number of objects that can be processed in parallel while maintaining detection accuracy in each region.
Solution Approach 2:
Multiple detection reference marks are combined on a single printing table, allowing the system to handle multiple objects simultaneously. The printing head can switch between different reference marks and corresponding objects, merging the detection and printing functions across multiple locations to improve overall productivity.
2Productivity
If three-dimensional objects are densely disposed on the printing table, then printing efficiency improves, but objects may hide detection reference marks, making position and orientation detection inaccurate
Solution Approach 1:
Different regions of the printing table are assigned different detection reference marks at strategically positioned locations. Each reference mark is placed in a location optimized for detecting objects in its specific region, ensuring that even when objects are densely packed, the local detection quality remains high and reference marks are not obscured.
3Manufacturing precision
If rotational control is implemented on three-dimensional objects, then printing accuracy can be maintained, but the system becomes more complex and productivity decreases
Solution Approach 1:
The mechanical rotational control system is replaced with an optical/detection-based system. The detection reference marks enable the system to detect object orientations and automatically adjust printing parameters through software processing, eliminating the need for mechanical rotation of objects and reducing system complexity while maintaining printing accuracy.
4Manufacturing precision
If fixing jigs are used to hold three-dimensional objects, then printing accuracy is maintained, but the device complexity increases and productivity decreases
Solution Approach 1:
The fixing jig component is extracted and removed from the system. Instead of using physical fixtures to hold objects, the system uses detection reference marks and software-based position/orientation detection to achieve accurate printing without additional mechanical components, thereby reducing device complexity.
Data Source
AI summary
A three-dimensional object printing system includes: a printing table for a plurality of three-dimensional objects to be placed on, the printing table having a plurality of detection reference marks; detecting means for detecting positions and orientations of the three-dimensional objects placed on the printing table and the detection reference marks; printing data generating means generating printing data corresponding to the three-dimensional objects based on the positions and orientations of the three-dimensional objects detected by the detecting means, the printing data generating means obtaining reference coordinates of the detection reference marks based on part of the detection reference marks; and printing means for executing printing on the three-dimensional objects using the printing data generated by the printing data generating means.


