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Digital transformation and decarbonization are raising performance demands on advanced materials. Sumitomo Metal Mining categorizes its advanced materials into five functional properties: Thermal, Solar, Electrical, Magnetic, and Chemical.

Start with the property your application requires, then see which materials deliver it and how manufacturers and research institutions have put them to work.

Thermal Properties

As devices shrink, they remain stable thanks to materials that conduct, dissipate, and resist heat, and that sinter at lower temperatures.

Thermal Conductivity

Thermal Conductivity

Spreads heat quickly to prevent localized overheating.

Heat Resistance

Stable operation in high-temperature environments.

Low-Temperature Sintering

Bonds particles with less energy and less thermal load.

Electronic components, semiconductors above all, are sensitive to heat, therefore the risk of malfunction climbs once they exceed a threshold temperature.
As devices shrink, gain more functions, and integrate with surrounding systems, thermal management has become a design constraint rather than an afterthought. Materials with high thermal conductivity move heat quickly through a device, preventing localized hot spots and keeping performance stable under changing loads.

Low-temperature sintering addresses the same constraint from the process side. Forming bonds at lower temperatures reduces the thermal load on surrounding components, widening the range of materials a designer can employ and improving reliability, while also cutting energy use and CO₂ emissions.
Our materials cover high thermal conductivity, heat dissipation, heat resistance, and low-temperature sinterability, properties that support efficient thermal management and reliable performance in high-temperature operating environments.

Solar Properties

Materials that absorb near-infrared light while transmitting visible light can convert that energy into heat—warming fabrics or blocking solar gain in buildings and greenhouses.

Near-Infrared Absorption

Near-Infrared Absorption

Absorbs near-infrared light selectively.

Transparency

High transparency that preserves pigment color.

Photothermal Conversion

Converts absorbed near-infrared light into heat.

Sunlight contains near-infrared as well as visible light. Our near-infrared-absorbing materials absorb specific wavelengths efficiently and convert them to heat while remaining transparent to visible light. Fabric made with these materials warms the wearer as soon as sunlight reaches it. In window glazing and agricultural netting, the same property works in reverse: the material blocks near-infrared before it enters, so a room or a crop receives the visible light it needs while unwanted heat stays out, keeping building and vehicle interiors comfortable and reducing the energy required for cooling. These materials can also be used to weld transparent resins.

Electrical Properties

Materials that conduct current, insulate reliably, and hold their performance at high frequencies underpin faster, denser electronics.

Conductivity

Conductivity

Carries current efficiently with minimal loss.

Insulation

Delivers high insulation reliability on circuit boards.

High-Frequency Characteristic

Reduces transmission loss in high-frequency signals.

As electronic devices become smaller and more sophisticated, efficient electrical conduction is critical to stable operation. Conductivity is not the only concern: resistors and substrates also rely on adequate insulation properties, and the shift toward high-capacity, high-speed data communication has created demand for materials with low loss at high frequencies.

Driven in part by the rapid spread of IoT, 5G networks have been scaled to enable ultra-high-speed, high-capacity communication. Because 5G operates at millimeter-wave frequencies, it requires insulation materials with low dielectric loss. Dielectric loss is the energy dissipated as heat when an alternating electric field is applied across a dielectric, and it degrades signal quality.

Magnetism

Materials that generate, retain, and respond to magnetic fields enable efficient energy conversion, precise actuation, and sensitive detection.

Magnetic Strength

Magnetic Strength

Strong magnetism for efficient energy conversion.

Magnetic Properties

High performance with excellent magnetic properties.

Magnetostriction

Uses magnetically induced shape changeto generate power.

Magnetic energy, the energy an object holds within a magnetic field, is put to work in electric motors, generators and magnetic recording devices. Using it effectively calls for materials with excellent magnetic properties. Magnetic materials, whether permanent magnets or electromagnets, generate and retain magnetic fields, enabling efficient energy conversion in motors, speakers and magnetic sensors. Rare-earth magnets stand out for their magnetic strength and durability, improving device performance while allowing motors and generators to be made smaller and to consume less energy.

Magnetostrictive materials change shape in response to a magnetic field. That behavior, called the magnetostrictive effect, is applied in actuators, sensors and ultrasonic devices for precise positional control and highly sensitive detection. It is also the basis of vibration energy harvesting.

Chemical Properties

Materials that disperse uniformly and resist harsh chemistry support finer processing and reliable performance at lower loadings.

Dispersion

Dispersion

Uniform dispersion that maximizes material performance.

Microfabrication

Precision processing for durability and adhesion across a wider range of applications.

Chemical Resistance

Holds performance in harsh conditions, including high-temperature alkaline solutions.

Dispersion uses chemical energy to control how particles interact, producing a uniform particle distribution. For powder materials, this technology sits at the core of every function, extending what the material can do. Our powder materials achieve a sharp particle size distribution through this same dispersion technology.

Our proprietary particle technology also delivers high catalytic activity, raising reaction efficiency even at low temperatures and supporting decarbonization technologies such as methanation. Microfabrication further improves adhesion and flex resistance.