ICP Spectrometer
ICP-OES & ICP-MS Systems
AELAB provides Inductively Coupled Plasma spectrometers for rapid, sensitive and reliable multi-element analysis across environmental, pharmaceutical, food, petrochemical, materials and research laboratories.
Choose ICP-OES for efficient routine and trace multi-element analysis or ICP-MS for ultra-trace elemental determination, complex matrices and applications requiring higher sensitivity.
What Is an ICP Spectrometer?
A powerful analytical platform for rapid multi-element determination from trace to ultra-trace concentration levels.
An ICP Spectrometer uses a high-temperature Inductively Coupled Plasma source to excite or ionize elements in a sample. Depending on the detection system, the instrument measures either the light emitted by excited atoms and ions or the mass-to-charge ratio of ions generated in the plasma.
ICP techniques are widely used when laboratories need fast multi-element analysis, broad elemental coverage, high sensitivity and reliable quantification across environmental, industrial, pharmaceutical, food and research applications.
Optical Emission Spectrometry
ICP-OES measures characteristic light emitted by excited atoms and ions. It is well suited to robust, high-throughput multi-element analysis across low-ppb to higher concentration ranges.
Atomic Emission Spectrometry
ICP-AES is another commonly used name for plasma-based atomic emission analysis and is frequently used for quantitative elemental determination in laboratory and industrial workflows.
Mass Spectrometry
ICP-MS converts sample elements into ions and separates them according to mass-to-charge ratio, enabling highly sensitive trace and ultra-trace elemental analysis.
Compare AELAB ICP-OES & ICP-MS Spectrometers
Explore selected AELAB ICP systems for routine multi-element analysis, full-spectrum optical emission and ultra-trace mass-spectrometric determination.
AELAB ICP-700T
A high-performance Inductively Coupled Plasma Emission Spectrometer for rapid multi-element analysis across environmental, petrochemical, metallurgy and research applications.
- More than 70 measurable elements
- Simultaneous multi-element capability
- Most solution detection limits at ppb level
- 5–6 orders of magnitude linear range
- Solid-state RF generator with automatic tuning
AELAB ICP-7760HP
A simultaneous ICP-OES system designed for rapid, full-spectrum multi-element analysis with efficient sample usage and optimized argon consumption.
- Full-spectrum direct reading
- Simultaneous signal acquisition
- High-resolution optical system
- Advanced scientific CCD detection
- Real-time spectral monitoring and optimization
AELAB EXPEC 6500 ICP-OES
An advanced ICP-OES platform designed for stable elemental analysis of complex matrices with vertical torch dual observation and efficient plasma operation.
- Vertical torch dual observation
- Designed for complex sample matrices
- All-solid-state RF power supply
- Stable elemental analysis
- Low-power standby for reduced argon consumption
AELAB ICP-MS Spectrometer 7000
An ICP-MS system for demanding trace and ultra-trace elemental analysis in complex matrices, including environmental, pharmaceutical, semiconductor and research applications.
- Ultra-trace detection to ppt levels
- Hexapole collision reaction cell
- Collision mode + KED interference reduction
- High-sensitivity ion interface
- Automated tuning and status monitoring
Which AELAB ICP Configuration Is Right for You?
Compare selected systems according to analytical technique, sensitivity, sample complexity and laboratory workflow.
| Model | Technique | Best For | Sensitivity / Capability | Main Advantage |
|---|---|---|---|---|
| ICP-700T | ICP Emission | Routine & advanced multi-element analysis | ppb-level detection for many elements | Broad elemental coverage & wide linear range |
| ICP-7760HP | Simultaneous ICP-OES | High-throughput multi-element workflows | Full-spectrum simultaneous acquisition | Fast analysis with reduced sample & argon use |
| EXPEC 6500 | ICP-OES | Complex matrices & routine elemental analysis | Optical emission multi-element analysis | Dual observation & stable RF operation |
| ICP-MS 7000 | ICP-MS | Ultra-trace & complex matrix analysis | ppt-level elemental determination | High sensitivity + interference management |
What Is the Difference Between ICP-OES and ICP-MS?
Both techniques provide multi-element analysis, but their detection systems, sensitivity and ideal applications differ.
ICP-OES
ICP-OES measures optical emission from atoms and ions excited in a high-temperature plasma. It is a strong choice for routine multi-element analysis, high sample throughput and applications covering low-ppb through higher concentration ranges.
- Simultaneous multi-element capability
- Fast routine analysis
- Broad dynamic concentration range
- Suitable for environmental and industrial QC
- Robust performance for many sample matrices
ICP-MS
ICP-MS measures ions according to mass-to-charge ratio. It provides substantially greater sensitivity and is preferred when laboratories need ultra-trace detection, isotope-related information or strong performance in demanding analytical applications.
- ppt-level detection for many elements
- Excellent trace and ultra-trace sensitivity
- Broad elemental coverage
- Collision/reaction cell interference control
- Suitable for semiconductor and high-purity analysis
Multi-Element Analysis Across Research & Industry
ICP-OES and ICP-MS support elemental analysis across a wide range of samples, concentration levels and laboratory workflows.
Environmental & Water
Heavy metals and trace elements in drinking water, wastewater, soils, sediments and environmental samples.
Food & Nutrition
Toxic elements, nutritional minerals, contaminants and elemental composition in food and beverage samples.
Pharmaceutical
Elemental impurities, raw materials, formulations and pharmaceutical quality-control workflows.
Metals & Materials
Elemental composition of metals, alloys, rare-earth materials, geological samples and advanced materials.
Petrochemical & Energy
Trace metals and elemental contaminants in petroleum, lubricants, fuels and petrochemical materials.
Semiconductor & High-Purity Materials
Ultra-trace impurities in high-purity chemicals, silicon, electronic materials and advanced manufacturing samples.
How to Choose an ICP Spectrometer
The right ICP system depends on the elements you need to measure, expected concentration range, matrix complexity and laboratory throughput.
Define the Elements
Identify target elements such as Pb, Cd, As, Cr, Ni, Cu, Zn, Fe, rare-earth elements or other metals and trace species.
Define the Detection Range
ICP-OES is typically well suited to routine ppb–ppm workflows, while ICP-MS is preferred when ultra-trace ppt sensitivity is required.
Evaluate the Sample Matrix
Consider dissolved solids, acids, salts, organics and possible spectral or mass-spectrometric interferences.
Consider Throughput & Automation
Evaluate simultaneous analysis, autosampler requirements, software workflow and the number of samples processed per day.
When Should You Choose ICP Instead of AAS?
ICP systems are especially valuable when the analytical workflow requires faster multi-element analysis and broader elemental coverage.
ICP Solutions for Different Elemental Analysis Requirements
Select an ICP system according to analytical sensitivity, sample matrix, throughput and application requirements.
Multiple ICP Technologies
Choose from ICP emission, simultaneous ICP-OES and ICP-MS systems according to analytical requirements.
Multi-Element Capability
Analyze multiple elements efficiently across broad concentration ranges and diverse sample matrices.
Trace & Ultra-Trace Options
Select ICP-OES for routine trace analysis or ICP-MS when substantially lower detection limits are needed.
Application-Based Selection
Match the ICP configuration to your elements, matrices, standards and laboratory workflow.
ICP-OES, ICP-AES & ICP-MS for Elemental Analysis
Laboratory ICP spectrometers are widely used for rapid and accurate multi-element analysis in samples ranging from water, soil and food to metals, pharmaceuticals, petroleum products and semiconductor materials. The high-temperature plasma source provides efficient excitation or ionization of elements and supports broad analytical coverage.
ICP-OES and ICP-AES are strong choices for routine and trace elemental analysis where high throughput and wide dynamic range are important. Simultaneous optical systems can further reduce analysis time by collecting multiple elemental signals across a broad spectrum.
ICP-MS provides substantially greater sensitivity and is widely selected for ultra-trace elemental determination, complex sample matrices, environmental monitoring, pharmaceutical elemental impurities and high-purity materials.
ICP Spectrometer Frequently Asked Questions
What is an ICP Spectrometer used for?
What is the difference between ICP-OES and ICP-MS?
Is ICP-OES the same as ICP-AES?
What detection limits can ICP systems achieve?
What sample types can be analyzed by ICP?
How are interferences controlled in ICP analysis?
Should I choose ICP-OES or ICP-MS for heavy metal analysis?
Can AELAB recommend an ICP system for my application?
Request an ICP Recommendation & Quotation
Tell us about your samples, target elements and required detection limits. AELAB can help identify a suitable ICP-OES, ICP-AES or ICP-MS configuration for your analytical workflow.