Some people argue that modern technology has advanced by leaps and bounds. Progress in exploration equipment, improvements in technology, and faster exploration processes have all contributed to shorter exploration cycles. Similarly, advancements in mining equipment and enhanced technologies have led to shorter service lives and operational lifespans for mines. Moreover, geophysical exploration, geochemical exploration, remote sensing and telemetry technologies, and measurement instruments have all developed at an astonishing pace, injecting fresh vitality into traditional geological prospecting efforts and even showing signs of potentially replacing them altogether. However, every new method has its own inherent limitations.

·          Geophysical prospecting instruments: Multisolvability 。

·          Geochemical exploration can only solve: Issues of directionality and trendiness 。

·          Remote sensing and telemetry technologies have: Macroscopic 。

    Mineral resources objectively exist and are buried underground. It can only be predicted, only be foretold—but it cannot be known in advance, much less be unforeseeable. It must be closely integrated with basic geology, fundamental geological theories, and basic geological survey methods. In particular, only by combining it with traditional geological practices and fieldwork can it fully realize its intended role. Modern prospecting technologies—especially geophysical, geochemical, and remote-sensing techniques—are highly advanced, intelligent technologies. However, no matter how sophisticated they may be, they can never surpass human intelligence. They cannot replace human observation, description, analysis, and research of objective geological phenomena. This is because the scientific nature, practicality, and uniqueness of geological exploration work dictate the nature of its research subjects: Complexity 。

    The research objects of geological prospecting are strata, structures, magmatic rocks, as well as the structure and texture of rocks and minerals. Geological phenomena are diverse and intricately interwoven. The conditions and patterns of ore formation can only be compared—never exactly replicated. No matter how advanced modern technology becomes, it can never replace traditional field geological work. Only by closely integrating traditional field geological techniques, field geological observations and descriptions with comprehensive laboratory studies and modern technologies can conventional geological exploration activities lead the way toward entirely new, cutting-edge technologies. How can modern technologies be leveraged in geological exploration—particularly in deep-prospecting—and how can these modern technologies be integrated with, accommodated by, and combined with traditional geological exploration practices? , It is currently the top priority in geological exploration and mineral prospecting.

    In real-world geological exploration work, geologists select various prospecting methods within a scientifically sound and economically rational framework. They require geophysical, geochemical, remote sensing, and engineering prospecting technicians to precisely locate and characterize underground and deep geological structures within the identified target areas for geological exploration. However, apart from the direct visual insights provided by engineering prospecting, geophysical, geochemical, and remote-sensing techniques offer only directional, trend-based, multi-interpretable, and macroscopic interpretations. Thus, the process remains one of moving from the known to the unknown—and from the unknown to the unknown again.

The reason for this is:

    Traditional geological exploration engineering technicians lack the theoretical foundation in new technologies such as geophysical prospecting, geochemical prospecting, and remote sensing and telemetry. As a result, they are unable to accurately analyze, interpret, and evaluate the data obtained from geophysical prospecting, geochemical prospecting, and remote sensing and telemetry—let alone effectively communicate with geophysical, geochemical, and remote-sensing engineering technicians, thereby fully leveraging and integrating the feasibility of various prospecting methods.

    Geophysical exploration, geochemical exploration, and remote sensing and telemetry engineering technicians have only a superficial understanding of fundamental geological theories. They are merely operators of modern equipment and lack the ability to conduct reasonable analysis, interpretation, and evaluation of the data, information, and maps generated by high-tech, intelligent machines and devices—data that could guide geological prospecting efforts. Consequently, it becomes extremely difficult for them to communicate with, let alone collaborate sincerely with, traditional geological prospecting engineers.

Faced with rapidly advancing exploration technologies, methods, and equipment—technologies that are constantly evolving and improving—some argue that traditional geological prospecting has reached its limits. In today’s world, where independent innovation is essential, only by discarding the old and embracing the new can we achieve genuine breakthroughs. Geophysical exploration, geochemical exploration, and remote sensing and telemetry technologies, as the vanguard of geological work, are closely followed by engineering-based exploration, which shows a strong trend toward replacing traditional geological methods. The hammer, compass, and magnifying glass have already been replaced by advanced instruments. The depth at which mineral resources are buried now poses a significant challenge to the use of these traditional tools, while high-precision... GPS — Satellite-based navigation systems will soon usher geological surveys into a paperless era, and megapixel digital cameras can serve both as magnifying glasses and telescopes.

    In an era of rapid advancement in modern technology, the intensification of knowledge clusters and the clustering of methodologies are steadily encroaching upon traditional geology. As a result, traditional geological exploration technicians can only passively accept this reality... They must strive to enhance their technical proficiency, technical competence, and technical sophistication. Integrating multidisciplinary, cutting-edge technologies—including geophysical prospecting, geochemical prospecting, and remote sensing and telemetry—is precisely the guiding philosophy that modern geological explorers should embrace.

    As is well known, currently, various types of exploration projects cannot be independently initiated; they can only be carried out in conjunction with geological prospecting. In the long run, it won't be long before geophysical exploration, geochemical exploration, and remote sensing and telemetry are independently funded and developed. Some have suggested that geophysical mapping, geochemical mapping, and three-dimensional geological mapping represent a challenge to traditional geology. It will soon become a reality that geological prospecting increasingly relies on geophysical exploration, geochemical exploration, and remote sensing and telemetry technologies. To accommodate the shift in the focus of geological prospecting toward geophysics, geochemistry, and remote sensing, geological prospecting project proposals should prioritize or simultaneously incorporate geophysical exploration, geochemical exploration, and remote sensing and telemetry as leading components. Therefore, when conducting research on fundamental geological theories and prospecting theories, it is crucial to emphasize compatibility and inclusiveness with geophysical exploration, geochemical exploration, and remote sensing and telemetry.

    In university and geological science research, geophysical prospecting, geochemical prospecting, and remote sensing and telemetry.