Optical Emission Spectrometer LOES-T2013

Introduction

Optical Emission Spectrometer can measure wavelengths ranging from 165 to 589 nm. It uses a Paschen-Runge construction with a full vacuum-type design, which helps improve accuracy and stability. The High Energy Pulsed Source excitation light delivers strong, stable pulses for accurate and consistent metal analysis. It can detect elements including that C, P, S, N and it is suitable for a variety of metal base. Our optical emission spectrometer delivers fast, accurate elemental analysis for reliable results in industries like metallurgy, mining, aerospace, and automotive.

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 provides fast, accurate metal analysis for industries like metallurgy, mining, aerospace, and automotive, ensuring reliable results for element testing.

Specifications

Optical System Wavelength Range	165 to 589 nm (Extendable)
Optical Structure	Paschen-Runge construction, full vacuum type optics
Optical System Room Temperature	35℃ ± 0.5℃
Optical System Focal Length	400 mm
Optical System Grating Line	2400 lines/mm
First Order Spectral Line Dispersion Rate	1.2 nm/mm
Detector Type	Multi-block high-performance linear array
Average Resolution Ratio of Detector	10 pm/pixel
Excitation Table Gas Type	Rushing Argon (99.999%)
Argon Flow Rate During Excitation	3 to 5 L/min
Argon Flow Rate in Standby	No flow required
Electrode Technology	Tungsten electrode
Purge Function	Automatic purge
Makeup Design	Thermal deformation self-compensation
Sample Stage Gap	3.4 mm
Excitation Light Type
Excitation Frequency	100 to 1000 Hz
Discharge Current Range	1 to 400 A
Discharge Optimization Technology	Optimized discharge parameter design
Pre-combustion Technology	High-energy pre-combustion
Processor Type	High-end with high-speed data acquisition
Data Collection Interface	Ethernet (DM9000A based)
Base Elements for Analysis	Fe, Cu, Al, Ni, Co, Mg, Ti, Zn, Pb, Sn, Ag, Mn, Cr
Working Temperature Range	10 to 35℃ (≥5°C)
Working Humidity Range	20 to 85%
Power Supply Requirements	220VAC, 50/60Hz (Customizable)
Power Consumption	Maximum: 750W, Standby: 100W
Dimension	860 × 680) × 438 mm
Packaging Dimension	1280 × 820 × 930 mm
Net Weight	100 Kg
Gross Weight	208 Kg

Features

Smart Digital Excitation Light Source

Intelligent Sample Inspire Stand

Integrated Gas Channel

Computer and Read-out System

Friendly Analysis Software

FAQs

1. What is a It Optical Emission Spectrometer and how does it work?

A It Optical Emission Spectrometer () is a scientific instrument used to analyze the elemental composition of metals. It works by exciting atoms in a sample using a high-energy spark or arc discharge. This causes the atoms to emit light at specific wavelengths. The spectrometer captures this light and separates it into individual wavelengths using a specialized optical system, such as a Paschen-Runge design. Each element emits light at a unique set of wavelengths, allowing the spectrometer to identify and measure the concentration of various elements in the sample. This method is fast, highly accurate, and ideal for quality control and research in industries like metallurgy, mining, aerospace, and automotive.

2. What are the main features that make It Optical Emission Spectrometers accurate and reliable?

It instruments offer several advanced features to ensure accurate and repeatable results. These include a smart digital excitation light source, which delivers strong and stable electrical pulses for consistent excitation of the metal sample. The vacuum-type optical system eliminates interference from air, improving stability and reducing drift. It also integrates automatic purge systems to maintain clear optical paths using high-purity argon gas. Additionally, the detectors in It spectrometers are high-resolution arrays, capable of capturing minute spectral differences, which helps in precise element detection—even for trace elements like carbon, sulfur, phosphorus, and nitrogen.

3. In what industries are It Optical Emission Spectrometers commonly used and why?

It Optical Emission Spectrometers are widely used in industries where accurate metal composition is critical. In metallurgy, they ensure alloys meet precise specifications for strength and corrosion resistance. In the mining sector, they help analyze ores and processed metals for commercial value. The aerospace industry relies on It spectrometers to verify the purity of metals used in aircraft components for safety and performance. Similarly, in the automotive sector, manufacturers use these devices for quality control in parts and materials. These spectrometers are trusted across industries due to their speed, precision, and ability to analyze a wide range of base metals.

4. What makes the design of It Optical Emission Spectrometers user-friendly for laboratory and field use?

It Optical Emission Spectrometers are designed with ease of use in mind. They include features like an intelligent sample stand that simplifies sample placement and ensures consistent results. The system comes with friendly analysis software that helps users interpret data quickly, even if they are not experts in spectroscopy. The instruments also come with an integrated gas channel system that manages argon gas flow efficiently. Accessories like a business computer, printer, and argon pressure regulator are provided to support smooth operation right out of the box. These user-centric designs make the spectrometers practical for use in both laboratory settings and industrial environments.

5. How does It ensure the stability and accuracy of elemental analysis in their Optical Emission Spectrometers?

It achieves high stability and accuracy in elemental analysis by combining several engineering and design innovations. The vacuum-sealed optical system protects sensitive components from atmospheric variations and dust. The high-energy pulsed excitation source delivers strong, repeatable discharges that excite metal atoms evenly. Also, real-time temperature control of the optical system (typically around 35? ± 0.5?) prevents thermal drift, which can affect measurement accuracy. Additionally, advanced data acquisition systems, based on high-speed processors and Ethernet interfaces, allow for fast and secure data collection. These technologies work together to deliver consistent, laboratory-grade analytical performance.