ICP Optical Emission Spectrometer LICP-T2010

Introduction

Optical Emission Spectrometer operates over a wavelength range of 165 to 950 nm. It features a dual observation design, allowing for both radial and axial measurements. The sampling systems are optimized for organic solvents, high-salt, and complex matrix samples, ensuring accurate analysis in challenging conditions. A mass flow controller of our optical emission spectrometer regulates the flow of cooling, auxiliary, and carrier gases to ensure optimal performance and efficiency in various applications.

This analytical equipment is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Optical Emission Spectrometer is used to analyze trace elements in substances soluble in nitric, hydrochloric, and hydrofluoric acids, in fields like environmental protection, petroleum, rare earths, semiconductors, geology, metallurgy, clinical medicine, food safety, forensics, and agriculture.

Specifications

Wavelength Range	165 to 950 nm
Observation Design	Radial and axial observation for element measurement from sub-ppm to high content
Optical Path Structure	Echelle grating and prism cross-dispersion with ultra-pure SiO2 prism
Imaging Quality	Optimized design with aspherical optical elements
Light Chamber Technology	Multi-point filling for faster operation
Gas Path	Independent gas path for nitrogen or argon
Spectroscopic System	Medium-step 2D optical system with 400 mm focal length
Grating Specifications	Echelle grating, 100 × 50 mm
Stray Light	Equivalent background concentration < 2 μg/ml at As 189.042 nm
Temperature Control	38 ± 0.1℃
Detector Type	Large-area , full-spectrum response, high UV quantization efficiency
Detector Pixel	1024 × 1024 pixels, 24 × 24 μm pixel area
Detector Working Temperature	< -40℃, stabilization time < 3 minutes
Detector Quantization Efficiency	> 75% without coating
Type	All-solid-state RF generator
RF Generator Cold Cone Tail Flame Technology	Minimizes self-absorption and ionization interference
RF Generator Power Output	700W to 1600W, continuously adjustable by 1W
RF Generator Power Stability	≤ 0.1%
RF Generator Oscillation Frequency	27.12 MHz
RF Generator Frequency Stability	≤ 0.01%
RF Generator Electromagnetic Field Leakage	< 0.5 V/m
Sampling Systems	Optimized for organic solvents, high-salt/complex matrix samples
Feedback Diverter System	Two-inlet and six-out waterway for better control
Peristaltic Pump	4-channel, 12-roller with adjustable speed
Argon Gas Consumption	8 L/min to 18 L/min
Cooling Gas	0.00 L/min to 20.00 L/min, accuracy 0.01 L/min
Auxiliary and Carrier Gas	0.00 L/min to 2.00 L/min, accuracy 0.01 L/min
Multi-Method Analysis	Supports simultaneous measurement, editing, and viewing
Spectral Line Library	> 70,000 spectral lines, intelligent interference prompts
Method Support	Standard curve and standard addition methods, multiple data processing methods
Report Output	Multiple formats available
Liquid Content Range	0.01 ppm to several thousand ppm
Solid Content Range	0.001% to 70%
Repeatability	< 1%
Stability	< 1.5% @ 2 hrs
Element Detection Limit	1 to 10 ppb for most elements
Storage and Transportation Temperature	5℃ to 40℃
Storage Relative Humidity	≤ 85%
Atmospheric Pressure	86 to 106 kPa
Working Humidity	≤ 70%
Working Temperature	15℃ to 30℃
Power Supply	220 ± 22 , 50 ± 1 Hz
Dimension	1270 × 720 × 850 mm
Packaging Dimension	1500 × 900 × 1060 mm
Net Weight	192.4 Kg
Gross Weight	249.5 Kg

Features

Echelle grating

High UV quantization

Multiple output formats

Multi-Method Analysis

User friendly

19” monitor

Laser Printer

FAQs

1. What are the key factors to consider when selecting this analytical equipment for laboratory use?

When selecting this analytical equipment, key factors include: 1) The instrument's precision and accuracy to meet experimental requirements; 2) Compatibility with the types of samples and applications you will be working with; 3) Ease of use and maintenance requirements; 4) Safety features to protect operators and samples; 5) Calibration and certification requirements; 6) Cost-effectiveness and long-term reliability; 7) Technical support and service availability from the supplier. Evaluating these factors ensures that the instrument meets your laboratory's specific needs.

2. How often should this analytical equipment be calibrated to ensure accurate results?

It is recommended to calibrate this analytical equipment at least once every 6-12 months under normal usage conditions. More frequent calibration (every 3-6 months) may be necessary if: 1) The instrument is used continuously for extended periods; 2) It is exposed to harsh environmental conditions (temperature fluctuations, humidity, dust); 3) It is used for critical applications requiring high precision; 4) The instrument has been moved or subjected to physical shock; 5) Calibration checks indicate significant deviations from standard values. Always follow the manufacturer's calibration guidelines.

3. What are the common maintenance procedures required for this analytical equipment?

Common maintenance procedures include: 1) Regular cleaning of the instrument's exterior and sample contact surfaces to prevent contamination and ensure proper operation; 2) Inspection of moving parts (if applicable) for wear and lubrication as recommended by the manufacturer; 3) Replacement of consumable parts (filters, bulbs, reagents) according to usage guidelines; 4) Verification of performance parameters (temperature, pressure, voltage) regularly; 5) Storage of the instrument in a clean, dry environment when not in use; 6) Keeping a maintenance log to track service activities and identify potential issues early; 7) Following the manufacturer's specific maintenance schedule for optimal performance and longevity.

4. Can this analytical equipment be used with different types of samples, and are there any compatibility considerations?

Yes, this analytical equipment can be used with a variety of sample types, but compatibility considerations are important: 1) Check if the instrument's materials are compatible with the chemical composition of your samples (avoid corrosive or reactive substances that may damage the instrument); 2) Ensure that the sample volume and concentration are within the instrument's recommended range; 3) For biological samples, consider sterility requirements and potential cross-contamination risks; 4) For volatile or hazardous samples, ensure proper ventilation and safety precautions are in place; 5) Consult the manufacturer's documentation for specific sample compatibility guidelines, and perform compatibility tests with new sample types before regular use.

5. What should be done if the analytical equipment malfunctions or produces inconsistent results?

If malfunctions or inconsistent results occur: 1) First, check the instrument's user manual for troubleshooting guidelines specific to the issue; 2) Verify that the instrument is properly calibrated and within its calibration period; 3) Inspect for obvious issues such as loose connections, damaged parts, or incorrect settings; 4) Clean the instrument thoroughly to remove any contamination that may affect results; 5) Repeat the experiment with a known standard sample to determine if the issue is with the instrument or the sample; 6) If the problem persists, discontinue use of the instrument to prevent further damage or inaccurate results; 7) Contact technical support or a qualified service technician for diagnosis and repair, providing details of the issue and any troubleshooting steps already performed.