X-ray, Optical Emission Spectroscopy (OES)
IndustriesEnergy & Chemicals
ManufacturerThermo Fisher Scientific
Significance of the Topic
The Thermo Scientific ARL SMS-3500 Entry system addresses the growing need for robust and integrated automation in metals, cement and mining laboratories. By combining optical emission spectrometry (OES) and X-ray fluorescence (XRF) analysis with automated sample preparation and handling, the system enhances throughput, reduces manual errors and optimizes laboratory efficiency.
Aims and Overview of the System
The ARL SMS-3500 Entry was developed as a turnkey solution to streamline complete analytical workflows. Key objectives include minimizing response times through parallel sample processing, offering a scalable platform that can be upgraded in the field, and consolidating automation of up to two spectrometers and two sample preparation modules within the smallest possible footprint.
Methodology and Used Instrumentation
The system integrates the following instrumentation and methods:
- ARL SMS-3500 Entry automation cell with CE-compliant safety enclosure and intuitive SMS control software
- FANUC six-axis industrial robot (1614 mm reach, 10 kg payload) for sample transfer between modules
- ARL iSpark OES metals analyzer for trace and light element detection
- ARL 9900 WDXRF spectrometer for high-concentration alloy measurements
- Sample preparation units (e.g. HN-FF or HS-F1000) with milling, grinding and optional sawing capabilities
- Optional modules: vision system for surface quality inspection, dot-peen printer for sample marking, barcode reader for automatic sample registration
The SMS software orchestrates sample prioritization, robot motions and instrument switching between manual and automated modes without interrupting operation.
Main Results and Discussion
Performance tests demonstrate that samples can be moved and analyzed in seconds, enabling rapid turnaround under high workload. Shared standards magazine (up to 90 positions) and dual spectrometer configurations reduce capital costs compared to separate lines. Built-in intelligence, such as automated cleaning, sample tracking and failure recovery, ensures high uptime and consistent data quality. The compact layout and floor-standing robot minimize the laboratory footprint while maintaining accessibility for maintenance.
Benefits and Practical Applications
- Increased throughput: parallel sample preparation and analysis, fast robot transfers
- Cost efficiency: single automation cell for two spectrometers, shared peripherals
- Scalability: field-upgradeable from single to dual instrument and preparation configurations
- Reliability: brushless AC-servo motors, absolute encoders, automated error handling
- Flexibility: support for various sample shapes (up to 5 geometries) and high-temperature samples
The system is ideal for continuous process control in metal production, quality assurance labs and research facilities.
Future Trends and Potential Applications
Advancements in robotics and software are expected to drive further integration of machine learning for predictive maintenance and adaptive sample handling. Remote monitoring and cloud-based data analytics will enhance real-time decision making. Expanding compatibility with additional spectrometry techniques and evolving sample preparation modules will broaden application scopes in emerging industries such as recycled materials analysis and battery component characterization.
Conclusion
The ARL SMS-3500 Entry system delivers a comprehensive, upgradeable automation platform that merges OES and XRF spectrometry with advanced sample handling. Its combination of speed, reliability and scalability makes it a cost-effective choice for laboratories seeking to improve analytical throughput and data quality while minimizing operational complexity.
Used Instrumentation
- ARL SMS-3500 Entry automation cell
- FANUC six-axis industrial robot
- ARL iSpark OES metals analyzer
- ARL 9900 WDXRF spectrometer
- Sample preparation machines (HN-FF, HS-F1000)
- Optional vision system, barcode reader, dot-peen printer
Content was automatically generated from an orignal PDF document using AI and may contain inaccuracies.