Amid the pandemic, "Made in China" has frequently been a topic of discussion. my country’s manufacturing prowess extends beyond simple production; the country is growing increasingly strong in complex manufacturing and across the full spectrum of manufacturing sectors. Its vast hinterland allows for the relocation of manufacturing activities within the country, thereby extending the industry's lifecycle. However, my country's manufacturing sector faces numerous internal challenges. We still lack sufficient fundamental innovation capabilities, particularly regarding core technologies and fields such as chemistry, physics, and materials science. While we excel in incremental or simpler forms of innovation, we remain relatively weak in complex innovation.
In other words, the more knowledge-intensive a product is—such as lithography machines, semiconductor components, or 3D scanning technology—the greater the reliance on accumulated historical expertise; this is an area where we tend to be relatively weak. Therefore, to achieve greater sophistication and depth in the future, we must dedicate ourselves to fundamental R&D.
Foundational innovation and basic sciences are crucial! Take 3D scanners, for example: they involve technologies such as multi-frequency heterodyne phase-shifting, close-range photogrammetry, digital image correlation, and point cloud and mesh processing. Research in these fields is arduous and demanding, often requiring researchers to toil in obscurity for ten or twenty years; R&D investment requires sustained, long-term accumulation.
The tireless efforts of experts from research institutes and enterprises provide the foundation for developing high-end 3D scanners; it is through collaboration, interdisciplinary integration, and mutual inspiration that domestically produced 3D scanning equipment has achieved rapid advancement. XTOP3D’s core R&D team originated from the 3D technology group at Xi'an Jiaotong University. The XTOM-MATRIX 3D scanner represents the culmination of years of research and continues to undergo iterative optimization, enabling the delivery of practical, efficient solutions tailored to the specific needs of various industries.
Industries such as 3C electronics, automotive, shipbuilding, and heavy machinery are increasingly adopting new materials, structures, and manufacturing processes, creating an urgent need for rapid, convenient 3D measurement technologies and instruments to support innovative design.
Traditional contact-based inspection equipment and methods suffer from low efficiency, limited measurement ranges, and single-point measurement capabilities; they are cumbersome to install and use, making it difficult to achieve 3D, full-field, real-time inspection. Precision 3D scanning equipment enhances inspection efficiency and aligns with the requirements of Industry 4.0 and smart manufacturing, representing the inevitable future direction of equipment development.
While traditional 3D scanners typically rely on offline measurement, the industry is shifting toward online measurement to meet production needs and boost inspection capabilities—a transition that necessitates equipment miniaturization. Currently, however, the level of 3D online inspection technology remains relatively low.
3D scanners capture point cloud data from an object's surface to measure 3D dimensional tolerances. These systems are portable, fast, highly accurate, and easy to operate; they can measure workpieces even under complex operating conditions and generate precise, visually rich inspection reports.
By integrating 3D scanning technology with 5G, the industry can truly enter the wireless era. This combination enables the machine-to-machine connectivity and "flexible" production required by Industry 4.0, while equipping artificial intelligence with more responsive neural networks.
