Industry News

The following are the core trends and in-depth thoughts of the laser industry in 2025, combined with comprehensive analysis of technological breakthroughs, application scenarios, and industrial ecology:

🚀 1、 A new paradigm of technology and industry integration

AI deeply empowers laser manufacturing

Intelligent closed-loop system: Cognitive Photon Company proposes a three element closed-loop system of "self-learning+adaptation+self evolution", which achieves dynamic optimization of welding processes through a real-time inference control platform (computing power 825TOPS), reducing parameter debugging time from hours to minutes and improving yield by 30%.

Hierarchical intelligent agent architecture: Huagong Laser has launched AI three-level intelligent agents (L1-L3), covering the entire process reconstruction from basic interaction (L1 digital human reduces after-sales response by 30%) to autonomous decision-making (L3 factory intelligent scheduling), and improving wafer detection efficiency by 50%.

Data driven manufacturing: The industry's pain point has shifted from a lack of technology to a shortage of high-quality data, and the shortage of composite talents (laser+AI) has become a key bottleneck.

Software Defined Light Source Revolution

The traditional power competition is caught up in an internal competition, and technology is shifting towards multi-dimensional parameter collaborative control. For example, SDL-10000-CW software defined laser can achieve 20kW high power, 1.2x diffraction limit beam quality, and 10MHz dynamic shaping frequency, solving the welding problem of aluminum alloy thick plates.

Cross fusion of multiple technological routes

Quantum technology: nanometer level laser processing accuracy (thousands of times higher than traditional micrometer level), promoting the upgrading of medical implants and precision optical devices.

Laser materials science collaboration: such as single step laser reaction pyrolysis (SLRP) synthesis of hafnium carbide ceramics, compressing the traditional several day process to a few minutes, accelerating the application of ultra-high temperature materials in aerospace protection systems.

🚀  2、 Breakthrough and Refactoring of Application Scenarios

The demand for precision manufacturing in the new energy industry has surged

Photovoltaic field: Breakthrough in etching technology for curved perovskite cells (precision of "laser embroidery needle" ± 3 microns), covering roof photovoltaic/building integrated curtain walls, with etching efficiency increased by 40%.

Power battery: Laser welding solves the pain points of connecting high reactive materials (copper, aluminum) and dissimilar metal laminates, reducing thermal deformation by 50%.

High end medical equipment precision machining

Aerotech launches LaserTurn ® The 160 platform, equipped with a direct drive motor and dynamic rotating shaft, has increased the cutting capacity of cardiovascular stents by 40%, achieving a new standard of 5 in yield and repeatability.

Breakthrough in Next Generation 3D Printing Technology

Fraunhofer ILT has developed metal porosity controllable printing, achieving integrated molding of dense/porous areas in hydrogen electrolyzers, reducing the number of parts by 30%, and promoting innovation in heat exchanger/filter design.

The Laser Synthesis Revolution of Ultra High Temperature Materials

Hafnium carbide (HfC) has a melting point greater than 3900 ° C, and the traditional process yield is only 26% -36%. Laser single step synthesis increases the yield to 56%, providing a new solution for the thermal protection system of hypersonic aircraft.

🌐  3、 Market Pattern and Industrial Ecological Evolution

The Globalization Breakthrough of Chinese Enterprises

Vehicle mounted LiDAR: Sagitar Juchuang is the world's first to deliver one million units (with a market share of 26%). The EM platform achieves full solid-state digitization and customization, covering 30 car companies (including Geely/GAC).

Equipment going global: The localization rate of laser 3D five axis cutting equipment is 100%, the export rate is increasing by 40% annually, and the intelligent utilization rate exceeds the industry by 15%.

Sustainable Development and Green Manufacturing

Environmental label materials: 30% of the global laser label market is shifting towards biodegradable/recyclable materials, and 28% of companies in the food industry are using laser traceability labels to reduce carbon emissions.

Process consumption reduction: The laser weeding robot is trained on an AI cloud platform to improve efficiency and reduce pesticide dependence.

New challenges and new thinking

Challenge industry response

High initial cost (difficult for small and medium-sized enterprises to adopt) modular equipment reduces the threshold (such as medium thick plate welding system)

Technology homogenization and profit shrinkage shift towards scene customization (such as large format galvanometer welding systems)

Data barriers and algorithmic black boxes drive the establishment of interpretable AI and industry standards

🔭  4、 Future prospects: paradigm transition from tools to intelligent agents

Laser technology is undergoing a fundamental transformation from an "energy tool" to an "autonomous intelligent agent". The focus of competition in 2025 has surpassed parameter upgrades and shifted towards the integrated and collaborative capabilities of optics, machinery, electronics, and computing

In the short to medium term, the open source of AI process libraries and the localization of laser chips (such as the mass production of Sagitar SPAD SoC) will become breakthrough points.

Long term: Quantum laser processing and biocompatible laser devices may reshape the boundary between the medical and aerospace industries.

💎  The essence of laser is the art of controlling light. By 2025, we will not only control the beam path, but also the "perception decision execution" closed-loop of manufacturing systems. The end of technological involution began with the elevation of understanding of the interaction between light and matter. ——The core proposition of industrial upgrading has shifted from "how to use light for cutting, welding, and marking" to "how to make light think".