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About UsYangquan jinyulong ceramsite sand Co., Ltd. was established on March 31, 2012, with a registered capital of 50 million yuan and a total investment exceeding 100 million yuan. It is a specialized manufacturer of fracturing proppants (ceramsite sand) for oil and gas wells.
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ProductThe company currently has an annual production capacity of 90,000 tons of ceramic proppant sand and 150,000 tons of processed alumina powder. Utilizing both ore and slag materials, along with advanced production processes and proprietary formulations, the company is capable of producing high-strength, high-quality ceramic proppant sand.
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EquipmentThe main production equipment includes: two 500×750 jaw crushers, two 2.4×2.5 ball mills, two 2.4×8 ball mills, four 4.5×1.2 pelletizers, eight 2.4×1.7 pelletizers, two 2.2×14 drying kilns, two 2.4×18 cooling kilns, and two 3.2×50 rotary kilns.
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ServiceOur company’s products are not only best-selling across China but are also exported to overseas markets, including Cuba, Australia, South Africa, and many other countries.
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BlogOur company consistently adheres to strict management and the pursuit of excellence, providing our customers with high-quality, reliable products and satisfactory services, and contributing to China’s petroleum production.
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Yangquan jinyulong ceramsite sand Co., Ltd. was established on March 31, 2012, with a registered capital of 50 million yuan and a total investment exceeding 100 million yuan. It is a specialized manufacturer of fracturing proppants (ceramsite sand) for oil and gas wells.
Has nobody in the oil industry been talking about production anymore?
2026-06-09
If you scan the agendas of recent technical forums in the oil industry, you’ll notice an interesting shift.
A few years ago, the biggest concerns were “how many wells have been drilled this year” and “by how many tens of thousands of tons has production increased.” Today, the most frequent topics of discussion are: How’s your AI‑driven interpretation system performing? Has the downhole complexity at that deep, high‑risk exploration well been resolved? And has the subsidy policy for CCUS projects been implemented?
Currently, three areas are seeing a sharp surge in technical talent demand: deep and ultra-deep exploration, efficiency enhancement in unconventional oil and gas, and digital intelligence and low-carbon technologies. 。
It can be said that, under the dual pressures of increasing reserves and production while cutting costs and boosting efficiency, the value of technology has been reassessed.
Deep Technological Breakthrough: From “Out of Reach” to “Clear Vision and Effective Strikes”
In May this year, PetroChina’s Xinjiang Oilfield achieved a breakthrough on the southern margin of the Junggar Basin, with a exploratory well drilled to a depth of 5,300 meters producing a high‑yield industrial oil flow of 224.3 tonnes per day. The news sent shockwaves through the technical community—not because of the production figure itself, but because the well validated the feasibility of an integrated suite of deep‑exploration technologies.
Deep drilling has become a hot topic in technological research because it brings together three major challenges: the extreme demands of high temperature and high pressure on drilling tools and drilling fluids; the stringent requirements of complex geological structures for seismic imaging accuracy; and… Integrated Geological Engineering A profound test of multidisciplinary collaboration.
Geophysical professionals are focused on just how much “two‑width, one‑height” seismic acquisition technology can enhance deep‑layer imaging resolution; drilling engineers are discussing the progress of domesticating high‑temperature‑resistant electronic components and ultra‑deep‑well coring tools; meanwhile, project managers repeatedly search for the keyword “geology‑engineering integration”—a phrase that encapsulates a comprehensive overhaul of collaborative workflows, spanning everything from geological sweet‑spot prediction to fracturing‑scheme optimization.
Ten-thousand-meter scientific exploration well Deep-Well Takuo-1 The advancement of this endeavor has pushed both the technological anxieties and expectations to a fever pitch. An expert involved in the project confided, “At this depth, every drill‑in represents venturing into uncharted technological territory.” And each breakthrough is redefining the frontiers of China’s oil and gas exploration capabilities.
Non-conventional logic: No longer aiming to “crush the stone,” but rather to “squeeze out every last drop of oil.”
The core logic of early shale‑oil development could be crudely summarized as “crush the rock and squeeze out the oil.” But today, engineers have shifted toward a more refined approach: Close-cutting fracturing How should the seams be laid? When is temporary plugging and diversion technology most effective? Electric-drive fracturing How much cost can actually be saved compared to a conventional diesel‑powered vehicle?
Another emerging hotspot that should not be overlooked is Deep coalbed methane This is a field that has only come into the mainstream spotlight in the past two years. Its reservoir‑damage mechanisms and gas‑production‑with‑water‑drainage techniques differ fundamentally from those of shale gas, compelling engineers to relearn and conduct new experiments.
Meanwhile, under the strategic pressure to “increase reserves and boost production,” enhanced oil recovery technologies for mature fields are once again trending—techniques such as chemical flooding and gas injection are being integrated with digital tools, ushering in a new era of vitality. According to data from one research institution, among the most frequently searched technical keywords…
Digital intelligence and low carbon are now being evaluated in terms of input–output ratios.
If there’s one major shift in mindset that has swept the oil industry over the past two years, “AI evolving from a concept to a practical tool” certainly ranks among the most significant.
Today, technical experts no longer ask whether “AI can be applied in oilfields”; instead, they directly seek out concrete examples of algorithm implementation: How well does CNN‑based automatic seismic fault identification perform? By how much does a Transformer model outperform traditional methods in well‑log curve reconstruction? And can drilling‑fault early‑warning models truly predict stuck‑pipe incidents and well losses ahead of time?
A similarly pragmatic approach is evident in the field of low‑carbon technologies. CCUS—carbon capture, utilization, and storage—is the most viable pathway for decarbonization in the oil industry under the “dual carbon” goals, with technical teams focusing primarily on engineering economics: Can the cost of CO₂ capture be brought down to an affordable range? How can enhanced oil recovery and geological storage be jointly optimized to achieve the greatest economic value? And what long‑term monitoring strategies for stored CO₂ can ensure both safety and cost‑effectiveness?
Hydrogen energy and underground energy storage are also gaining momentum, though industry players remain more cautious. PetroChina is advancing the development of hydrogen refueling stations and integrating wind, solar, gas, and electricity, while Sinopec has set its sights on becoming China’s largest hydrogen‑energy company—clear strategic directions have been established, yet the path from technology to commercialization remains under exploration. Meanwhile, safety assessments for hydrogen‑blended pipeline transport and the technical feasibility of using depleted oil and gas reservoirs for compressed‑air energy storage are increasingly moving from academia into the engineering community.
International oil prices have heightened awareness of the commercial nature of technology.
This major shift in technology comes against a backdrop that is often overlooked: international oil prices are under pressure. Since May of this year, OPEC+ has been gradually increasing production, while global demand expectations remain subdued. Several institutions forecast that the average price of Brent crude could fall to the $60–$65 per barrel range in the second half of the year.
What does this price level imply? It means that technological pathways that once had a foothold during the era of high oil prices must now re‑establish their economic viability.
Deep‑exploration aims to identify successor resources, unconventional efficiency improvements seek to enhance resource conversion rates, and digitalization coupled with decarbonization are geared toward reshaping the cost structure—each of these three pillars has its own focus, yet they all converge on a single objective: under the stringent constraints of increasing reserves and production while ensuring safety and environmental protection, leveraging technology to redefine what it means to “extract oil.”
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Address: Longzhuang Village, Jucheng Town, Pingding County, Yangquan City, Shanxi Province
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