CIBAS Group aims at being your key partner since the early stages of the development of any new product involving permanent magnets. Our R&D and Engineering knowledge will guide you in the choice of the most appropriate magnetic material for your application, and our production know-how will guarantee stable quality over the life of your project.
Our Group can act as sole source for all your magnetic material needs. This allows us to give 360° support in the development of a new project, when a clear choice on the magnetic material still has to be made.
CIBAS Group creates the product you are looking for. Our R&D Team will follow you step-by-step since the design stage, providing Comsol Multiphysics simulations of your magnet, its behavior in your application and full consultancy to find the best solution to your needs.
All three Business Units are equipped with the same state-of-the-art measuring instruments, to guarantee complete quality alignment throughout the whole group.
CIBAS Group is an integrated manufacturer of permanent magnets and custom magnetic assemblies.
CIBAS Group operates globally with 3 Business Units, dedicated to different strategic objectives and activities.
CIBAS Engineering Magnets, based in Milan, Italy, is home to the Headquarters of the Group. Here are located the R&D and Engineering departments, as well as a dedicated logistic hub for the EMEA region.
CIBAS Sintered Magnets, the second Business Unit of the Group, is located Hangzhou, PR. China. It is dedicated to the manufacturing of sintered Rare Earth permanent magnets and custom assemblies.
CIBAS Bonded Magnets, the third Business Unit of the Group, is located in Guangdong, P.R. China. It is dedicated to the manufacturing of plastic bonded permanent magnets and overmolded products.
Neodymium magnets (NdFeB) are the most powerful permanent magnets available on the market thanks to their high magnetic strength; however, this extraordinary power hides a critical weakness: their extreme vulnerability to corrosion. Since they are mainly composed of iron, neodymium, and boron, these magnets tend to oxidize when exposed to moisture and oxygen, degrading and […]
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Neodymium magnets (also known as NdFeB magnets) are the material that provides the highest available energy density per unit volume. Developed in the early 1980s, they literally revolutionized the global industry thanks to their high magnetic energy density and the possibility of miniaturization. However, these extraordinary components have an inherent limitation: their vulnerability to oxidation. […]
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Powerful Industrial Magnets: What They Really Mean and How to Choose Them In the modern manufacturing, automation, and automotive landscape, efficiency and miniaturization have become absolute priorities. At the heart of this silent revolution are components that are often invisible but vital: permanent magnets. However, in the B2B context, the concept of “power” is often […]
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In the modern manufacturing landscape, permanent magnets are no longer considered simple hardware components or standard catalog items. The qualification of magnets for series production represents a fundamental step to ensure that every component complies with the required standards. The efficiency, durability, and safety of the products you bring to market depend directly on their […]
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Permanent magnets are essential components in numerous industrial applications, from high-performance electric motors to precision sensors, up to critical systems in the aerospace sector. The comparison between permanent magnets such as NdFeB (Neodymium-Iron-Boron) and SmCo (Samarium-Cobalt) is fundamental to identifying the most suitable solution, carefully evaluating magnetic properties, thermal stability, operating conditions, and project costs. […]
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The behavior of a magnet under temperature conditions does not depend only on the material. The same magnetic alloy can behave in very different ways depending on the component dimensions, the geometry of the magnetic circuit in which it is installed, and the operating point occupied by the magnet on the demagnetization curve. Understanding this […]
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