Figure 1. Introducing the Atlas Apex from IXRF Systems, the next generation of microXRF technology
Atlas Apex, the Next-Generation MicroXRF. Today
IXRF Systems is proud to announce the launch of the Atlas Apex M and Atlas Apex X microXRF spectrometers — our most advanced instruments yet, setting a new benchmark for resolution, sensitivity, and automation in elemental analysis.
With over two decades of innovation in X-ray fluorescence technology, we’ve reimagined what’s possible in lab-based microanalysis. The Atlas Apex is engineered for researchers and industrial professionals who demand both flexibility and uncompromising performance.
Breakthrough Features
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Quick-Disconnect Source Mounting (QDS): Rapidly exchange primary X-ray sources without losing alignment — choose between high-resolution 5 µm optics or high-flux sources up to 40 µm for maximum throughput.
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Unmatched Sensitivity: Up to four silicon drift detectors (260 mm² active area) deliver higher count rates, faster mapping, and lower detection limits than ever before.
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High-Resolution Mapping: True perpendicular beam geometry and optics down to 5 µm enable distortion-free imaging of complex microstructures.
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Enhanced Vacuum Capability: Operating below 0.1 kPa, the Atlas Apex delivers superior detection of light elements from carbon upward.
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Largest Sample Capacity in Its Class: Analyze specimens up to 7 kg, with mapping areas of 220 x 200 mm (M) and 400 x 300 mm (X).
Figure 2. MicroXRF elemental map collected by the U.S. Geological Survey (USGS) in Spokane from a rare earth element (REE)–rich carbonatite dike genetically associated with the world-class Mountain Pass REE deposit in California. The map highlights calcite (blue), altered barite (gray), and REE-bearing carbonate minerals bastnäsite and parisite (white and pink). These minerals are the primary hosts for critical rare earth elements including La, Ce, Pr, and Nd. The map beautifully reveals intra-crystal zoning between bastnäsite and parisite, tied to variations in Ca and Nd content—insights that are vital for understanding REE mineralization, U-Pb geochronology, and the geologic evolution of carbonatite-hosted deposits. This work underscores the value of microXRF for critical minerals research, rare earth element geology, and resource characterization.
Figure 3. Memphis nodules caption: MicroXRF elemental map of soil ferromanganese nodules showing enrichment of iron (Fe), manganese (Mn), and the rare earth element cerium (Ce). These pedogenic nodules illustrate how geological and soil processes concentrate critical minerals and rare earth elements through redox-driven reactions. Such high-resolution elemental imaging highlights the role of microXRF in geology, geochemistry, and critical mineral research.
Smarter Software: Iridium Ultra
The Atlas Apex is powered by Iridium Ultra, IXRF’s most advanced software platform to date. New capabilities include:
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AI-Assisted Workflow: Contextual guidance, recommended settings, and real-time data insights streamline operation.
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Mineral Classification: Automated identification and mapping for geoscience and materials science applications.
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Custom Map Calculator: Build maps from user-defined formulas, ratios, and expressions.
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Live Spectral Deconvolution: Real-time peak separation and interference correction for confident results.
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Automated Diagnostics: Smart system support reduces downtime and simplifies maintenance.
Figure 4. MIT tissue caption: High-resolution microXRF map, rivaling synchrotron data, of Fe and Zn in mouse brain tissue from the Tonegawa Lab at MIT’s Picower Institute. MicroXRF enables spatially resolved elemental imaging, offering insights into trace metal regulation in cognition and memory.
Figure 5. MicroXRF elemental map of a sea cucumber (holothurian) fossil from the Mazon Creek Lagerstätte in Illinois. Conducted in collaboration with Professor Roy Plotnick and the University of Illinois Chicago Paleontology group, this analysis highlights how ironstone concretions preserve exceptional Carboniferous marine fossils. Elemental imaging reveals the distribution of calcium (Ca), iron (Fe), sulfur (S), and even arsenic (As), providing new insight into fossil preservation, critical mineral cycling, and rare earth element geochemistry. This study demonstrates the power of microXRF for paleontology and geology research.
Driving Discovery Across Key Applications
The Atlas Apex is designed to accelerate progress in some of today’s most critical research and industrial challenges:
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Critical Minerals — supporting exploration and sustainable resource development
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Advanced Materials & Batteries — powering the future of energy and storage technologies
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Neurodegenerative Research — mapping trace metals in brain tissue to support medical breakthroughs
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Phytometallomics — advancing plant science through elemental uptake and transport studies
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Semiconductors & Microelectronics — enabling ultra-sensitive, high-resolution analysis for next-gen devices
Redefining Microanalysis
“With the Atlas Apex, we’ve combined precision-engineered hardware, high-throughput detectors, and smart automation to give researchers more flexibility, speed, and confidence in their results than ever before,” said Bill Williams, CEO of IXRF Systems.
The Atlas Apex M and Atlas Apex X are available to order now, with worldwide sales and support.
Stay tuned for more updates, case studies, and customer stories as we showcase how the Atlas Apex microXRF is advancing research and industry worldwide.
Learn more at: www.ixrfsystems.com
Disclaimer: These data are preliminary and subject to revision. They are provided to meet the need for timely scientific information. The data have not received final approval by the U.S. Geological Survey (USGS) and are offered with the understanding that neither the USGS nor the U.S. Government shall be held liable for any damages resulting from their authorized or unauthorized use.
IXRF Systems is a leading provider of X-ray fluorescence instrumentation. With our advanced analytical solutions, we are committed to supporting research, quality control, and educational endeavors across various industries.
