Products

  • Neodymium Magnets

    Neodymium Magnets

    Introduced in 1983, the Sintered Neodymium Iron Boron (NdFeB) magnet stands as a remarkable innovation primarily composed of neodymium, iron, and boron. Its intrinsic coercivity far surpasses that of ferrite by a remarkable margin of 5-10 times, and exceeds aluminum-nickel-cobalt by a remarkable margin of 6-10 times. Remarkably, it boasts a maximum energy product that is a staggering 5-15 times greater than ferrite, firmly establishing it as the pinnacle of contemporary magnetic materials. In comparison with conventional magnetic materials, it not only exhibits exceptional magnetic properties but also stands out for its remarkable cost-effectiveness, thereby unlocking an extensive array of possibilities for magnetic material applications.

  • Samarium Cobalt Magnets

    Samarium Cobalt Magnets

    Sintered Samarium Cobalt (SmCo) magnets are a highly sophisticated magnetic material composed primarily of samarium, cobalt, and select rare earth elements. It can be categorized into two main variants based on the proportion of its constituent elements: SmCo5 and Sm2Co17. As second-generation rare earth permanent magnets, SmCo magnets stand out for its exceptional magnetic properties, combining a notably high magnetic energy product and dependable coercivity.

     

    What truly sets SmCo apart is its remarkable temperature resilience, a characteristic that surpasses other rare earth magnetic materials. In comparison to Neodymium Iron Boron (NdFeB), SmCo magnets are particularly well-suited for operating in high-temperature environments, comfortably exceeding 200°C. Furthermore, these magnets exhibit an inherent resistance to corrosion and oxidation, often obviating the need for additional protective coatings.

  • AlNiCo Magnets

    AlNiCo Magnets

    AlNiCo magnets are a sophisticated alloy primarily composed of aluminum, nickel, cobalt, copper, and iron. It is available in two distinct forms: cast and sintered, each shaped by unique manufacturing processes. The cast AlNiCo magnets possess exceptional hardness and brittleness. Consequently, machining or drilling is not possible through conventional methods. The casting process usually entails the creation of holes at the foundry. The magnets are cast or sintered as closely as possible to the desired size, effectively minimizing the need for abrasive grinding to achieve the specified dimensions and tolerances.

  • Hard Ferrite Magnets

    Hard Ferrite Magnets

    Sintered ferrite magnets encompass two primary variants: Barium Ferrite and Strontium Ferrite, each featuring different orientations, classified as isotropic and anisotropic. These magnets are crafted through a high-temperature sintering process, akin to the production of ceramics. They exhibit a hard and brittle texture, characteristic of their composition.

     

    Over the course of more than five decades, sintered ferrite magnets have undergone significant development to become the most prolifically manufactured permanent magnets globally. Their widespread use spans across numerous industries, including electric motors, magnetic separators, loudspeakers, hearing aids, office supplies, educational tools, and children’s toys.

     

    The appeal of sintered ferrite magnets lies in their attractive balance between cost-effectiveness and moderate magnetic performance. This unique combination positions them as versatile and reliable components in various applications, delivering a cost-efficient magnetic solution while satisfying the demands of specific engineering requirements.

  • Bonded Magnets

    Bonded Magnets

    Bonded magnets are a unique class of magnetic materials formed by blending magnetic powder with a binding agent. This blend is precision-molded under controlled pressure and subsequently cured at temperatures ranging from 150 to 175°C. The resulting magnet’s shape and dimensions are determined by the mold, enabling one-step production without the need for secondary machining. These magnets boast several key advantages, including exceptional magnetic performance, precise dimensional consistency, versatility in shaping, excellent resistance to corrosion, multiple magnetization options, and suitability for large-scale production, ensuring elevated manufacturing efficiency.

  • Injection Molded Magnets

    Injection Molded Magnets

    Injection molded magnets, often referred to as molded composite magnets, represent a class of advanced materials formed by blending thermoplastic resin with magnetic powder. This unique amalgamation is meticulously processed under pressure, allowing it to flow into a precisely designed mold cavity. Within this cavity, the material takes on its final form, undergoes orientation, experiences a controlled cooling process, and ultimately solidifies into the desired shape. The injection molding process is capable of producing an array of intricate shapes, including thin-walled rings, rods, and complex custom geometries. Additionally, these magnets can be readily combined with other metal components to create versatile assemblies.

     

    Injection molded magnets leverage a range of magnetic powders, including neodymium iron boron (NdFeB), samarium cobalt (SmCo), and ferrite, in conjunction with thermoplastic resins such as PA6, PA12, and PPS.

  • Flexible Magnets

    Flexible Magnets

    Flexible magnets are a class of composite materials created by blending ferrite magnetic powder with synthetic rubber or plastics (CPE or NBR). They can be broadly classified into two categories: isotropic and anisotropic. With a developmental legacy spanning more than three decades, flexible magnets have evolved into an environmentally friendly, lead-free material option.

     

    One of the hallmark attributes of rubber magnets is their remarkable flexibility and resilience. They exhibit the unique capability to be effortlessly folded, twisted, or shaped without sustaining damage or experiencing a significant degradation in magnetic performance. Additionally, these magnets offer exceptional machinability, readily accommodating conventional manufacturing processes like drilling, punching, cutting, die-cutting, and more.

  • High Precision Magnets for Medical Devices

    High Precision Magnets for Medical Devices

    Our specialized magnetic medical devices and equipment harness the attractive forces of permanent magnets, transforming them into functional forces for clinical diagnosis and treatment. This technology enables a range of applications including vascular anastomosis, tissue compression, instrument anchoring, surgical navigation, space dilation, and controllable tracing. It is particularly valuable in diagnostics and minimally invasive treatments for digestive, gynaecological, breast and urological diseases. The integration of this technology with endoscopy, interventional procedures, and surgical robots is expected to drive transformative innovations in surgical techniques.

     

    Given the unique and complex environments in which these devices operate, the design of such magnetic steels often involves micro-dimensions, intricate shapes, and the need for special coatings, making the manufacturing process highly challenging. Our company has a profound grasp of the precise requirements for medical grade precision magnets, having achieved stable mass production. We offer comprehensive customization services, from consulting and rapid prototyping to full-scale production.

  • High Performance Magnets for Magnetic Sensors

    High Performance Magnets for Magnetic Sensors

    Magnetic sensors are devices that convert various magnetic fields and their fluctuations into electrical signal outputs. They often use magnets in conjunction with Hall elements. These sensors are primarily used to measure parameters such as vehicle speed, tilt, angle, distance, proximity, and position, and are integral to navigation and positioning applications. Examples include vehicle speed monitoring, pedal positioning, transmission location, motor rotation, power-assist torque measurement, crankshaft positioning, tilt measurement, electronic navigation, and anti-lock braking detection.

     

    As a supplier of high-performance magnetic materials for magnetic sensors, we consistently produce high-quality sintered neodymium-iron-boron (NdFeB), samarium cobalt (SmCo), alnico. Our products are characterized by high dimensional accuracy, consistency, strong magnetic fields, high temperature resistance, and stable performance. They are widely employed in various industries, including aerospace, automotive, industrial control, consumer electronics, and military applications.

     

    Our dedication to excellence in magnetic technology paves the way for advances in precision sensing and ensures reliability in the most critical applications. We are committed to delivering magnetic solutions that drive innovation and performance across all industries.

  • Precision Magnets for Electrical Switchs

    Precision Magnets for Electrical Switchs

    As a dedicated supplier of magnetic materials for electrical switches industry, AIC Magnetics specializes in producing high-quality, high-performance sintered neodymium (NdFeB), samarium cobalt (SmCo), Alnico, and Ferrite permanent magnets. These are critical components for various DC circuit breakers, contactors, and relays.

     

    Our products boast a sleek appearance, high dimensional accuracy, consistent quality, robust magnetic fields, high temperature resistance, and stable performance. These characteristics make them highly sought after for use in high-power DC electrical switches found in electric vehicles, charging stations, hydrogen fuel cell drive systems, marine equipment, and photovoltaic installations.

     

    In the era of rapid advances in new energy technologies, there is an increasing demand for high current rapid disconnection in end-use applications. We have an acute understanding of the specific requirements for precision magnets used in such electrical switches. Working closely with our clients, we support the development of innovative products by offering a comprehensive range of services including consultation, design, rapid prototyping, and mass production, tailored to the full life cycle of our clients’ needs.

  • Motor Magnetic Strips

    Motor Magnetic Strips

    Motor magnetic strips are anisotropic rubber magnets made from a composite of ferrite magnetic powder and synthetic rubber or plastic. These materials are flexible, elastic, and easy to cut into various shapes, facilitating automated assembly. They are extensively used in micro-motors for home appliances, communication devices, automotive components, fan motors, and sensors.

     

    Product Features:

    • Diverse types with a wide range of magnetic properties and minimal fluctuation in magnetic performance.

    • Excellent flexibility, high stability, and precise dimensional accuracy.

    • Custom magnetization options available to meet specific customer requirements.

    • Versatile shape offerings including strips, rolls, rings, and more.

    • Surface treatments available such as smooth finishing, embossing, line drawing, UV coating, and adhesive backing.

  • Magnetron Sputtering Assemblies

    Magnetron Sputtering Assemblies

    We specialize in providing tailor-made solutions to our customers in the form of a diverse range of magnetron sputtering components, including planar targets, rotary targets, and disk targets. These components are compatible with various PVD sputtering target materials and geometries. Our state-of-the-art precision machining capabilities enable us to fabricate complementary parts from a wide range of materials, followed by comprehensive assembly and cleaning. To ensure that our products meet the highest quality and performance standards, we conduct rigorous tests, including hydraulic pressure, insulation, and gas tightness assessments.

     

    We cater to our customers’ specific requirements for magnetron sputtering components. Our services span the entire process, from consultation, design and prototyping to mass production, offering full cycle custom manufacturing.

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