Prototype injection molding service is a manufacturing process used to create prototypes of plastic parts by injecting molten plastic into a mold cavity under high pressure. This service allows designers and engineers to produce functional, high-quality prototypes that closely mimic the final product’s appearance, material properties, and functionality. It is typically used in the early stages of product development to test design concepts, assess fit and form, and validate functionality before committing to large-scale production. By using prototype injection molding, companies can save time and costs by identifying potential design issues early on, while also obtaining prototypes that can be used for testing, client presentations, or market analysis.

2026-02-10Report Format： Single user version：3500.00 USD

Carbon Capture and Utilisation (CCU) is a process that captures carbon dioxide (CO₂) emissions from industrial sources or directly from the atmosphere and repurposes it into useful products, reducing its environmental impact. Unlike Carbon Capture and Storage (CCS), which focuses solely on storing CO₂, CCU converts captured carbon into fuels, chemicals, building materials, or other valuable resources. This approach helps mitigate climate change by lowering greenhouse gas emissions while creating economic opportunities through sustainable carbon reuse. CCU technologies are increasingly being adopted in industries such as energy, manufacturing, and agriculture, contributing to a circular carbon economy and promoting greener industrial processes.

2026-02-10Report Format： Single user version：3500.00 USD

Ammonia cracking technology is a process used to decompose ammonia (NH₃) into its constituent components—nitrogen (N₂) and hydrogen (H₂)—through a catalytic reaction, typically at high temperatures. This process is important in various industrial applications, especially in hydrogen production for fuel cells, as it provides a reliable and efficient method of producing hydrogen from ammonia, which is easier to store and transport than hydrogen gas. The ammonia cracking process is typically carried out in the presence of a catalyst, such as iron or ruthenium, which facilitates the breakdown of ammonia into hydrogen and nitrogen. This technology is increasingly seen as a promising solution for clean energy applications, as it supports the development of a hydrogen economy while reducing the reliance on fossil fuels.

2026-02-10Report Format： Single user version：3500.00 USD

Recycled Carbon Fiber Reinforced Polymer (CFRP) refers to carbon fiber composites that have been repurposed by extracting the carbon fibers from discarded or end-of-life CFRP materials. This recycling process typically involves techniques such as pyrolysis or solvolysis, which break down the resin matrix without damaging the carbon fibers, allowing them to be reused in new products. Recycled CFRP maintains many of the desirable properties of virgin carbon fiber, such as high strength and lightweight characteristics, but is more cost-effective and environmentally sustainable. It is increasingly used in various industries, including automotive, aerospace, and sports equipment, to reduce waste, lower production costs, and promote sustainability in manufacturing.

2026-02-10Report Format： Single user version：3500.00 USD

MHC-peptide tetramers are specialized laboratory reagents used in immunology research to study and identify antigen-specific T cells. These tetramers consist of four major histocompatibility complex (MHC) molecules, each bound to a specific peptide antigen and fluorescently labeled for detection. By binding to T cell receptors (TCRs) that recognize the presented antigen, MHC-peptide tetramers enable precise identification and analysis of T cell populations involved in immune responses, such as those targeting infections, cancer, or autoimmune diseases. They are widely used in flow cytometry and other immunological assays to assess T cell specificity, function, and diversity, playing a crucial role in vaccine development, immunotherapy, and disease monitoring.

2026-02-10Report Format： Single user version：3500.00 USD

Titanium recycling involves the collection, processing, and re-melting of titanium scrap and used products to produce reusable titanium material. Given titanium＇s high value, strength, and resistance to corrosion, recycling helps reduce the environmental impact and cost associated with primary titanium extraction and processing, which is energy-intensive and involves extracting titanium ore (typically rutile or ilmenite) through complex methods like the Kroll process. The recycling process includes sorting, cleaning, and melting titanium scrap, which can come from industrial waste, aerospace components, medical implants, and other sources. Recycled titanium maintains the same high-quality properties as virgin titanium, making it ideal for reuse in high-performance industries such as aerospace, automotive, and biomedical applications, contributing to resource conservation and sustainability.

2026-02-10Report Format： Single user version：3500.00 USD

Surface protection films, also known as surface protection tapes or protective films, are thin, transparent films applied to surfaces to safeguard them from damage during handling, transportation, storage, and installation. These films are commonly made from materials like polyethylene, polypropylene, or polyester, and they come in various thicknesses and adhesion levels to suit different surface types and protection requirements. Surface protection films are used in a wide range of industries, including manufacturing, construction, automotive, electronics, and aerospace, to protect surfaces such as glass, metal, plastic, painted finishes, and delicate substrates from scratches, abrasions, dirt, moisture, UV exposure, and other hazards. Once the protected surface is no longer at risk, the film can be easily removed without leaving residue, leaving the surface clean and undamaged. Surface protection films help prolong the life and appearance of surfaces, reduce rework and repair costs, and enhance overall product quality.

2026-02-10Report Format： Single user version：3500.00 USD

Slope stabilization and erosion control products are materials, techniques, and systems utilized in civil engineering and environmental management to mitigate soil erosion and stabilize slopes. These products aim to prevent or reduce soil erosion caused by factors such as rainfall, wind, or human activity, as well as to reinforce and stabilize unstable slopes to prevent landslides or slope failure. Common slope stabilization and erosion control products include geotextiles, geogrids, erosion control blankets, vegetative covers, gabions, retaining walls, and bioengineering techniques such as planting vegetation or installing erosion-resistant materials. These products provide erosion protection, improve soil stability, enhance vegetation growth, and promote sustainable land management practices, contributing to environmental conservation and infrastructure resilience in various landscapes and construction projects.

2026-02-10Report Format： Single user version：3500.00 USD

Ozone catalytic oxidation solutions involve the use of ozone (O3) in combination with catalytic materials to facilitate oxidation reactions for air and water purification applications. Ozone is a powerful oxidizing agent that can effectively remove organic and inorganic pollutants, odors, and microorganisms from air and water. In ozone catalytic oxidation systems, the ozone molecules react with contaminants on the surface of the catalyst, promoting the conversion of harmful substances into less harmful or inert byproducts. The catalytic materials used in these systems enhance the efficiency of ozone oxidation reactions, allowing for the rapid and thorough purification of air and water streams. Ozone catalytic oxidation solutions find applications in various industries, including wastewater treatment, drinking water disinfection, air pollution control, and odor removal in commercial and industrial settings. They offer an environmentally friendly and cost-effective approach to addressing pollution and improving air and water quality.

2026-02-10Report Format： Single user version：3500.00 USD

Sulphur recovery refers to the process of capturing and converting hydrogen sulphide (H2S) gas, often produced as a byproduct in oil and gas refining, into elemental sulphur or sulphur-containing compounds for reuse or disposal. Hydrogen sulphide is a toxic and corrosive gas that must be removed from gas streams to meet environmental regulations and prevent damage to equipment. Sulphur recovery processes typically involve a series of chemical reactions that convert hydrogen sulphide into elemental sulphur or sulphur dioxide (SO2), which can then be further processed or refined for various industrial applications. One of the most common sulphur recovery processes is the Claus process, which involves the thermal oxidation of hydrogen sulphide to form sulphur dioxide, followed by the catalytic reaction of sulphur dioxide with additional hydrogen sulphide to produce elemental sulphur. Other sulphur recovery technologies include the modified Claus process, tail gas treatment units (TGTU), and wet sulphuric acid processes, among others. These technologies play a crucial role in reducing sulphur emissions and ensuring compliance with environmental regulations while recovering valuable sulphur by-products for industrial use. Efforts to improve sulphur recovery efficiency, reduce energy consumption, and minimize environmental impacts are ongoing in the development and deployment of sulphur recovery technologies.

2026-02-10Report Format： Single user version：3500.00 USD