Inductively Coupled Plasma Emission Spectrometer NICP-201 comes with 0 to 0.4 MPa pressure valve and focal length of 1000 mm. It has a high optical resolution, supported by the Czerny-Turner design enhances analytical accuracy. Our coaxial nebulizer system improves sample introduction and efficiency. This precision step motor control enhances repeatability and data reliability for complex analytical workflows.
| Wavelength Range |
3600 L/mm: 190 to 500 nm; 2400 L/mm: 190 to 800 nm |
| Sampling System |
Torque tube: Three concentric, OD 20 mm |
| Torch Working Coil |
Inner diameter: 25 mm |
| Nebulizer |
Coaxial type, Outer diameter 6 mm |
| Spray Chamber |
Double barrel atomizing chamber, OD 34 mm |
| Gas Flow Control |
Plasma Argon: 100 to1000 L/h (1.6 to16 L/min)
Auxiliary Argon: 10 to 100 L/h (0.16 to 1.66 L/min),
Carrier Argon: 10 to 100 L/h (0.16 to 1.66 L/min) |
| Pressure Valve |
0 to 0.4 MPa |
| Cooling Water |
Temp: 20 to 25°C, Flow: > 5 L/min, Pressure: > 0.1 MPa |
| Optics |
Czerny Turner |
| Focal Length |
1000 mm |
| Grating |
Ion Beam Etched Holographic Grating, 3600 L/mm or 2400 L/mm |
| Reciprocal Linear Dispersion |
0.26 nm/mm |
| Resolution |
≤ 0.007 nm (3600 L/mm), ≤ 0.015 nm (2400 L/mm) |
| Step Motor Precision |
≤ 0.0006 nm |
| Slits |
Entrance: 10 μm; Exit: 12 μm |
| Detector |
Photomultiplier Tube: R293 / R928 |
| Negative HV on PMT |
0 to 1000 V |
| Stability |
< 0.05% |
| RF Power Circuit |
Solid-state RF power supply with auto-matching function |
| RF Frequency |
27.12 MHz ± 0.05% |
| Escaped RF Radiation |
30 cm away, Electric field E < 2 V/m |
| Frequency Stability |
< 0.1% |
| Power Output Stability |
< 0.3% |
| Power Consumption |
800 W to 1200 W |
Inductively Coupled Plasma Emission Spectrometer NICP-201 used for accurate and simultaneous analysis of multiple elements in various samples through optical emission technology. It is commonly employed in industrial process monitoring, quality assurance, and advanced scientific research across diverse sectors.
FAQ for Inductively Coupled Plasma Emission Spectrometer NICP-201
1: How does dual grating capability enhance performance in the Inductively Coupled Plasma Emission Spectrometer NICP-201?
Dual grating in Inductively Coupled Plasma Emission Spectrometer NICP-201 offers flexibility for both high-resolution analysis and broader wavelength coverage, allowing optimized conditions for trace and major element detection in a single system.
2: What role does auto-matching play in RF power stability in the Inductively Coupled Plasma Emission Spectrometer NICP-201?
Inductively Coupled Plasma Emission Spectrometer NICP-201 has auto-matching function continuously adjusts impedance during operation, ensuring a consistent RF power supply, reducing downtime, and maintaining plasma stability for accurate readings.
3: Why is the Czerny-Turner optical system used in the Inductively Coupled Plasma Emission Spectrometer NICP-201?
Inductively Coupled Plasma Emission Spectrometer NICP-201 design minimizes optical aberrations, delivering sharp spectral lines and improved resolution, which is essential for precise quantitative and qualitative elemental analysis.
4: How does the nebulizer and spray chamber design affect accuracy in the Inductively Coupled Plasma Emission Spectrometer NICP-201?
The coaxial nebulizer in the Inductively Coupled Plasma Emission Spectrometer NICP-201 paired with a double-barrel spray chamber ensures efficient aerosol generation and consistent sample transport, leading to higher sensitivity and reproducibility.
5: Is the Inductively Coupled Plasma Emission Spectrometer NICP-201 suitable for continuous, high-throughput labs?
Yes, Inductively Coupled Plasma Emission Spectrometer NICP-201 robust RF system, automated controls, and high stability make it ideal for environments requiring large sample volumes with precise and fast elemental analysis.
