News & Resources
Explore technical insights, industry trends, and practical solutions in catalysts, activated alumina, adsorbents, gas separation and purification, and custom chemical development.
Why Advanced R&D Needs More Than Standardized Materials？
10/13/2026 News Update
Standardized materials work well for many applications. But in advanced catalyst and porous material development, every project comes with unique challenges.
Different reaction conditions, equipment configurations, and performance targets often require solutions beyond off-the-shelf products.
At AOGE Technology, we believe successful material development goes beyond product supply.
Through close technical collaboration, we support our partners with:
• Customized material development
• Optimization of material structures and performance
• Continuous testing and refinement
• Technical support from R&D to industrial-scale production
The right material isn't just about meeting specifications. It's about meeting the needs of your specific process.
At AOGE, we're committed to building long-term technical partnerships that turn material innovation into practical industrial solutions.
AOGE Technology Chairman Dr. Ming Wang Attends China–Netherlands Chemical Industry CCU Cooperation Seminar
9/24/2026 News Update
On September 14–15, 2026, Dr. Ming Wang, Chairman of AOGE Technology, attended a China–Netherlands chemical industry cooperation seminar in Guangzhou, bringing together representatives from companies, research institutions and government organizations from both countries.
The seminar focused on energy efficiency, carbon reduction, carbon capture and utilization (CCU), and the low-carbon transformation of the chemical industry.
Drawing on AOGE Technology’s experience in clean chemical technologies and catalyst materials, Dr. Wang shared perspectives on technical development and industrial applications related to energy saving and carbon reduction.
During the event, participants exchanged views on:
• Industrial energy efficiency and decarbonization
• Carbon capture and utilization (CCU) technologies
• Low-carbon technology deployment
• Carbon markets and green industrial development
• Potential cooperation between Chinese and Dutch companies and research institutions
The discussions also provided an opportunity to explore future collaboration in sustainable chemical technologies and industrial applications.
At AOGE Technology, we will continue to strengthen international technical exchange and explore opportunities to apply catalyst materials and clean chemical technologies in practical industrial settings.
We look forward to further collaboration with global partners working toward more efficient and lower-carbon chemical processes.
Small Particle Size, High Pore Volume, Low Attrition. Can You Have All Three?
9/18/2026 News Update
In catalyst support development, performance is rarely determined by a single specification.
Particle size, pore structure, mechanical strength, attrition resistance and production cost are often closely connected. Improving one property can easily compromise another.
For example, a precious-metal catalyst application may require:
• Small and tightly controlled particle size, with minimal fines
• Higher pore volume to support catalytic performance
• Low attrition for better durability during operation
Individually, these requirements may sound straightforward. Achieving them simultaneously, however, is much more challenging.
Reducing particle size can generate excessive fines and increase material loss. Increasing pore volume may weaken the structure, making the carrier more susceptible to breakage and attrition.
This is why catalyst support development often requires more than adjusting a single parameter.
At AOGE Technology, we approach these challenges through process-wide optimization:
• Raw materials: Optimizing pseudo-boehmite characteristics
• Gel formation: Controlling acidification, peptization and gel conditions
• Granulation: Refining spray parameters and particle formation
• Process control: Producing the target particle-size range directly to reduce reliance on downstream screening
By coordinating material properties, pore structure and manufacturing conditions, we can develop catalyst supports around the specific performance requirements of each application.
Because in catalyst support design, the goal is not simply to maximize one specification.
It is to find the right balance between them.
Choosing a Forming Process for Spherical Catalyst Supports: There Is No Universal “Best”
9/02/2026 News Update
Two spherical catalyst supports can have similar particle size, strength, and surface area specifications, yet perform very differently under actual operating conditions.
The difference often lies in how the material is formed.
Oil-drop forming, spray forming, and rolling granulation can produce materials with comparable specifications, but each process creates distinct structural characteristics and operating advantages:
• Oil-drop forming typically produces dense, strong, and abrasion-resistant spheres, making it well suited for many high-pressure fixed-bed applications.
• Spray forming offers uniform spherical morphology and excellent flowability, which can be advantageous in fluidized or circulating reaction systems.
• Rolling granulation provides controlled particle size and stable bed behavior for many conventional fixed-bed applications, although its suitability may be limited where extremely fine particles are required.
This is why selecting a catalyst support based only on specification sheets can lead to unexpected pressure drop, attrition, fluidization, or operating instability.
At AOGE Technology, we begin by evaluating the reactor and its operating conditions instead of recommending a standardized product. Our team considers the reactor type, system pressure, flow behavior, particle-size requirements, and actual production environment before selecting the appropriate forming process.
We then coordinate the forming method, material structure, and formulation to develop a support that fits the complete reaction system.
The goal is not to pursue the most impressive individual parameter. It is to achieve reliable compatibility between the catalyst support and the process. This helps support stable operation, reduce maintenance requirements, and minimize the risk of failure after installation.
The right catalyst support is not defined by one “best” forming process. It is defined by how well the material performs under real operating conditions.