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This technology is aimed at developing a pulse electrochemical-mass spectrometry (EC-MS) combined analysis system for commercial batteries. It uses pulse electrochemical excitation to simulate dynamic loads under actual battery operating conditions, and combines high-sensitivity mass spectrometry to detect electrolyte gas generation and volatile intermediates in real time, achieving millisecond-level in-situ analysis. This provides direct experimental evidence for key issues such as electrolyte decomposition, gas generation failure, SEI evolution, and fast lithium extraction. The technology is suitable for research and development diagnosis, failure analysis, incoming material evaluation, and safety warning system construction in power batteries, consumer batteries, and energy storage batteries. A pilot installation has been completed and the feasibility and engineering suitability of the method have been verified. We can provide technical support for system installation, test method development, commissioned analysis services, and data interpretation training.

The technology developed in this project is an efficient seawater/saltwater electrolysis hydrogen production system: by designing chlorine-resistant electrode materials and catalytic layers to inhibit the side reaction of chlorine evolution and improve the selectivity of oxygen evolution, combined with optimal design of the electrolysis cell structure and operation strategy, stable and efficient hydrogen production can be achieved under seawater or high salinity conditions, reducing the dependence on deep desalination and pretreatment costs. The technology is suitable for offshore wind power hydrogen production, coastal green hydrogen bases, and areas with brackish water resources. A pilot plant has been constructed and commissioned, which has verified the feasibility of the process and has the basis for process scaling. Services including electrolysis cell and electrode technology solutions, water quality adaptability assessment, system integration design support, commissioning guidance, and operation and maintenance training are available, and the owner needs to provide electricity and seawater intake conditions.

The alkaline polymer electrolyte membrane (AEM) is a key core material for alkaline electrolytic hydrogen production, alkaline fuel cells, and liquid flow batteries, and its ion conductivity and chemical stability determine the performance and lifetime of the devices. This technology enables the mass production of AEM: starting from the structural design of the polymer backbone and ion groups, taking into account conductivity, mechanical strength, and alkali stability, and through the continuous and uniform control of the film formation process, uniform thickness and stable performance of the film product are achieved. The width and specifications can be customized according to the needs of the devices. This technology provides the support of membrane materials for the localization of new hydrogen energy equipment such as AEM electrolytic cells and fuel cells, changing the situation of dependence on imports for such materials. At present, a pilot production facility has been built and commissioned, which has verified the feasibility of the mass production process and has the basis for scaling up, making it suitable for hydrogen energy equipment companies and membrane material companies. Services such as membrane preparation process licensing, production line design support, membrane electrode adaptation recommendations, quality evaluation methods, and operation training are available.

Long flight time is the core demand of industrial drones in scenarios such as inspection, mapping, and logistics. Lithium batteries are limited by energy density and are difficult to meet. Hydrogen storage and refueling have thresholds. This technology builds a power supply for drones using methanol fuel cells: methanol has a high energy density, is easily stored and refueled at room temperature, and is converted into hydrogen through reforming and converted into electricity by the fuel cell to continuously power the drone. The system covers fuel management, hydrogen reforming, fuel cell integration, and power management, and can be customized according to the model and payload to adjust the power level and fuel capacity, significantly extending the flight time and reducing the refueling time. The technical solution takes into account the adaptability to high and low temperature environments and reliable operation under flight conditions. A pilot plant has been built and put into production, which has verified the feasibility of system integration and has the foundation for scaling up and series production. It is suitable for drone manufacturers and power system suppliers. We can provide system integration solutions, key component selection, prototype adaptation development, and test verification support.

This technology adopts a green production route: using magnesium salts or magnesium-containing minerals as raw materials, through a controlled precipitation-hydrated crystallization process to produce low-aggregated magnesium hydroxide with uniform particle size and suitable specific surface area, and supporting surface modification processes to improve its compatibility with polymer matrices; the waste liquid from the production process can be recycled, with low environmental impact. The product series covers general flame retardant and high-dispersant modified grades. The technology has been built and commissioned in pilot plants, which have verified the feasibility of the process and have the basis for process scale-up. It is suitable for regions with magnesium resources (salt lakes, dolomite mines, and seawater magnesium extraction) and flame retardant materials enterprises. Services including process package authorization, modified formulation support, production line design, commissioning guidance, and operation training are available.

This technology focuses on the preparation of quantum dot liquid laser gain media: by controlling the size and components of the quantum dots, the emission wavelength can be precisely designed, and the long-term dispersion stability and optical performance of the quantum dots in the liquid carrier can be ensured through surface ligand engineering. The media can be customized according to the design requirements of the laser, including concentration, wavelength, and solvent system, providing core material support for tunable lasers, special light sources, and optoelectronic research. The technology has been built and commissioned in pilot facilities, which has verified the feasibility of the process and has the basis for process scaling. It is suitable for cooperation between optoelectronic materials enterprises and research institutes in product development, quality evaluation methods, and operation training.

This technology, through molecular structure design and polymerization process control, produces polyolefin elastomers with both oil resistance and high and low temperature resistance. On the basis of ensuring the inherent flexibility and processability of the elastomers, it expands the temperature range and improves the resistance to oil-based media, making the products suitable for replacing some traditional rubbers in automotive parts, cable sheaths, seals, and modified reinforcing materials, and can be molded using conventional thermoplastic processing equipment with good recyclability. The technology has been built and commissioned in a pilot plant, which has verified the feasibility of the process and has the basis for process scaling. It is suitable for polyolefin enterprises to develop differentiated high-end grades. Services such as process authorization, catalyst and formulation recommendations, product application development support, driving guidance, and operation training are available.

This technology is focused on the polymerization process of olefin, providing specialized catalyst systems and supporting technologies: high catalyst activity, good hydrogen sensitivity, adjustable copolymerization performance, and can meet the needs of various olefin polymerization processes (slurry, gas phase, and main body), supporting the development of products from general grades to high-performance specialty materials (such as high impact resistance, high transparency, and products with narrow distribution). The technology services include catalyst screening and evaluation, polymerization process matching, grade switching schemes for equipment, and product performance improvement, helping olefin enterprises to improve the operation level and competitiveness of their products. At present, a pilot plant has been built and commissioned, which has verified the catalyst performance and feasibility of production, and has the basis for process scaling. Services such as catalyst technology licensing, polymerization evaluation, process matching scheme design, equipment application guidance, and personnel training can be provided.

This technology is aimed at high-performance phase-change composite materials and develops a construction process for large-scale three-dimensional graphene-based thermal conductors: by orienting assembly and structural control, a three-dimensional graphene network with macroscopic size, complete structure, and continuous thermal conduction path is formed, and then combined with the phase-change core material, significantly improving the effective thermal conductivity and shape stability of the composite material without sacrificing the heat storage density. The product can be used in heat management for power batteries, electronic device heat dissipation, building energy conservation, and solar thermal utilization, among other applications. The technology has been built and commissioned a pilot facility, which has verified the feasibility of the process and has the basis for process scaling. It is suitable for thermal management materials and energy storage materials enterprises. Services such as license for the skeleton construction process, composite process design, product performance evaluation methods, production line design support, and operation training can be provided.

Chemical mechanical polishing (CMP) is the only feasible process for achieving global planarization of semiconductor wafers, sapphire substrates, and optical components. Polishing fluids and process parameters jointly determine the removal rate and surface quality. This technology covers ultra-precision CMP processes and matching high-end polishing fluids: in terms of fluids, through systematic control of the particle size distribution, dispersion stability, and chemical composition of abrasives (silicon dioxide, cerium oxide, etc.), high removal rates and low defect rates are achieved; in terms of processes, a system of pressure, rotational speed, flow rate, and pad matching is provided to meet the needs of different material systems and process nodes. This technology provides an integrated solution for the precision manufacturing industry chain. At present, a pilot plant has been built and commissioned, which has verified the feasibility of the process and the performance of the fluids, and has the basis for process scaling. Services such as fluid preparation technology licensing, CMP process development support, production line introduction, debugging, and operation training are available.