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Accurately measuring Thermal Conductivity is critical for developing safe and efficient hydrogen energy storage technologies. The C-Therm Trident Thermal Conductivity instrument provides the optimal capabilities to test metal hydrides in their pelletized and powder formats. Leading hydrogen researchers rely on the C-Therm Trident instrument to measure the thermal conductivity of their metal hydrides under high pressure hydrogen gas. In emerging hydrogen applications, metal hydrides are gaining attention because of their ability to reversibly absorb and release hydrogen gas for storage and transport. These materials are being explored for onboard vehicle storage, stationary energy systems, and portable backup power. However, one of the major engineering challenges is thermal management, since the rate at which a metal hydride can absorb or release hydrogen is directly governed by its thermal conductivity. This property is not constant and can change significantly depending on environmental conditions, especially when hydrogen is present, making real-world testing essential. The C-Therm Trident Thermal Conductivity Instrument provides a reliable approach to evaluate thermal conductivity of metal hydrides under realistic conditions. Using specialized high-pressure cells, the Trident platform enables measurements directly in hydrogen environments. The system offers two complementary techniques: the Transient Plane Source (TPS) method for pelletized samples and the Transient Line Source (TLS) method for powder materials. Together, these capabilities allow engineers and researchers to characterize materials accurately and optimize hydrogen storage tanks, transport vessels, and energy systems. Understanding how hydrogen affects thermal conductivity helps improve storage efficiency, system safety, and overall performance of next-generation clean energy solutions. Keywords: Metal Hydrides, Hydrogen Energy Storage, Thermal Conductivity Measurement, C-Therm Trident, Transient Plane Source (TPS), Transient Line Source (TLS), Hydrogen Thermal Management, Energy Storage Materials, Thermal Analysis Instrumentation, Clean Energy Materials.