Product Details:
Minimum Order Quantity | 1 PIECE |
Model Name/Number | stellarrad |
Usage/Application | Measurement |
Packaging Type | portable |
Common Mode Voltage | 220VAC |
Refresh frequency | 60 |
Protection Class | NA |
Product Details:
Machine Type | Handheld |
Usage/Application | Element identification |
Dimensions (L x W x H) | 4 x 7x 1.5 inches |
Dimensions L x W x H | 4 x 7x 1.5 inches |
Wavelength Range | 785, 1064nm |
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | Custom |
Spectral Bandwidth | 1 nm |
Mobility | Portable |
Wavelength accuracy | +-0.3 nm |
Wavelength Repeatability | +-0.1 nm |
Photometric Accuracy | +-0.5% T |
Lamp Type | Deuterium Lamp, Tungsten Halogen Lamp |
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | 190-1100 nm |
Optical System | Single Beam |
Spectral Bandwidth | 1 nm |
Mobility | Fixed |
Stability | +- 0.001 A/h. |
A Spectrometer is a powerful scientific instrument used to analyze and measure the properties of light, electromagnetic radiation, and other forms of energy. It plays a crucial role in various fields of science and industry, providing valuable insights into the composition, structure, and behavior of materials and substances.
Key Components and Working Principle:
Light Source: A spectrometer typically uses a light source to illuminate the sample being analyzed. This light can be from various sources, such as a lamp, laser, or sunlight.
Entrance Slit: The incoming light is focused through an entrance slit, which controls the amount of light entering the system and helps to improve spectral resolution.
Dispersion Element: The core component of the spectrometer is the dispersion element, which disperses the light into its different wavelengths or frequencies. Common dispersion elements include prisms, diffraction gratings, and interferometers.
Detector: The dispersed light is then detected by a sensitive device, such as a photodiode array or a charge-coupled device (CCD). The detector measures the intensity of the light at different wavelengths or frequencies.
Types of Spectrometers:
There are various types of spectrometers, each tailored to specific applications:
Optical Spectrometer: Utilizes lenses, prisms, or diffraction gratings to disperse light in the visible, ultraviolet, or infrared regions of the spectrum.
Mass Spectrometer: Analyzes the masses and charges of ions, providing information about the composition of samples.
X-ray Spectrometer: Analyzes X-rays to study the elemental composition and crystallographic structure of materials.
NMR Spectrometer: Utilizes nuclear magnetic resonance to study the magnetic properties of atomic nuclei, giving insights into molecular structures.
Applications:
Spectrometers have wide-ranging applications in numerous scientific disciplines and industries:
Chemistry: Used to analyze chemical compounds and identify their molecular structures.
Physics: Applied to study the properties of light, electromagnetic radiation, and matter.
Astronomy: Used to study the composition and temperature of celestial bodies.
Environmental Science: Employed to analyze air and water quality, identify pollutants, and monitor environmental changes.
Material Analysis: Utilized to characterize and identify materials in materials science and engineering.
Spectrometers play a fundamental role in scientific research, quality control, medical diagnostics, environmental monitoring, and numerous other fields, enabling us to understand and interact with the world around us at a deeper level.
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | 190-1100 nm |
Brand | Raman |
Optical System | Single Beam |
Model Name/Number | ps |
Spectral Bandwidth | 1 nm |
Mobility | Portable |
Signal to Noise Ratio (SNR) | 1000 |
Laser excitation wavelength | 532, 638,785,1064nm |
Maximum Sample Frequency | 1khz |
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | 950-1650nm |
Optical System | Single Beam |
Spectral Bandwidth | 1 nm |
Mobility | Portable |
Wavelength accuracy | +-0.3 nm |
Lamp Type | Tungsten Halogen Lamp |
Key Benefit | easy to operate and portable |
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | 190-2500nm |
Optical System | Single Beam |
Spectral Bandwidth | 1 nm |
Mobility | Portable |
Wavelength accuracy | +-0.3 nm |
Near-Infrared (NIR) Spectrometer: Unveiling the Hidden Spectral Information
A Near-Infrared (NIR) Spectrometer is a powerful analytical instrument that explores the near-infrared region of the electromagnetic spectrum. This cutting-edge technology offers valuable insights into the chemical composition, molecular structure, and physical properties of a wide range of materials.
Key Features and Capabilities:
Non-Destructive Analysis: NIR Spectrometers enable non-destructive analysis, allowing samples to be examined without altering or damaging them. This is particularly beneficial in quality control and research applications.
Rapid Analysis: NIR Spectroscopy provides fast measurement times, enabling real-time monitoring and high-throughput analysis in industrial and laboratory settings.
Versatility: NIR Spectrometers can be utilized for various applications across industries, including agriculture, food and beverage, pharmaceuticals, chemicals, and materials science.
Quantitative and Qualitative Analysis: NIR Spectroscopy can be used for both quantitative analysis (determining the concentration of specific compounds) and qualitative analysis (identifying the presence of certain substances).
Remote Sensing: NIR Spectroscopy is also used in remote sensing applications to study and analyze objects or substances from a distance, such as in environmental monitoring or geological surveys.
Applications:
NIR Spectrometers find extensive applications in a wide range of industries and research fields:
Agriculture: Analyzing soil composition, determining moisture content, and assessing crop quality.
Food and Beverage: Quality control of food products, identifying adulteration, and monitoring production processes.
Pharmaceuticals: Evaluating drug formulations, detecting counterfeit medications, and assessing the purity of pharmaceutical compounds.
Chemicals and Petrochemicals: Analyzing chemical composition, identifying impurities, and monitoring chemical reactions.
Materials Science: Characterizing the properties of polymers, coatings, and other materials.
Advantages:
NIR Spectrometers offer numerous advantages, including:
By harnessing the power of NIR Spectroscopy, researchers and industries can gain valuable insights into their materials, products, and processes, enabling better decision-making, quality control, and research advancements.
Product Details:
Minimum Order Quantity | 1 Piece |
Model Name/Number | PS-SPR |
Usage/Application | Measurement |
Packaging Type | OEM |
Common Mode Voltage | Battery operated |
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | 190-1100 nm |
Mobility | Benchtop |
Optical System | Double Beam |
Spectral Bandwidth | 1 nm |
Wavelength accuracy | +- 0.5 nm |
Wavelength Repeatability | +-0.1 nm |
Photometric Accuracy | +- 0.1% T |
Lamp Type | Tungsten Halogen Lamp |
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | 325-1000 nm |
Optical System | Single Beam |
Spectral Bandwidth | 1 nm |
Mobility | Portable |
Wavelength accuracy | +-0.3 nm |
Wavelength Repeatability | +-0.1 nm |
Lamp Type | Tungsten Halogen Lamp |
Spectrometer: Unraveling the Secrets of Light and Matter
A Spectrometer is a powerful scientific instrument used to analyze and measure the properties of light, electromagnetic radiation, and other forms of energy. It plays a crucial role in various fields of science and industry, providing valuable insights into the composition, structure, and behavior of materials and substances.
Key Components and Working Principle:
Light Source: A spectrometer typically uses a light source to illuminate the sample being analyzed. This light can be from various sources, such as a lamp, laser, or sunlight.
Entrance Slit: The incoming light is focused through an entrance slit, which controls the amount of light entering the system and helps to improve spectral resolution.
Dispersion Element: The core component of the spectrometer is the dispersion element, which disperses the light into its different wavelengths or frequencies. Common dispersion elements include prisms, diffraction gratings, and interferometers.
Detector: The dispersed light is then detected by a sensitive device, such as a photodiode array or a charge-coupled device (CCD). The detector measures the intensity of the light at different wavelengths or frequencies.
Types of Spectrometers:
There are various types of spectrometers, each tailored to specific applications:
Optical Spectrometer: Utilizes lenses, prisms, or diffraction gratings to disperse light in the visible, ultraviolet, or infrared regions of the spectrum.
Mass Spectrometer: Analyzes the masses and charges of ions, providing information about the composition of samples.
X-ray Spectrometer: Analyzes X-rays to study the elemental composition and crystallographic structure of materials.
NMR Spectrometer: Utilizes nuclear magnetic resonance to study the magnetic properties of atomic nuclei, giving insights into molecular structures.
Applications:
Spectrometers have wide-ranging applications in numerous scientific disciplines and industries:
Chemistry: Used to analyze chemical compounds and identify their molecular structures.
Physics: Applied to study the properties of light, electromagnetic radiation, and matter.
Astronomy: Used to study the composition and temperature of celestial bodies.
Environmental Science: Employed to analyze air and water quality, identify pollutants, and monitor environmental changes.
Material Analysis: Utilized to characterize and identify materials in materials science and engineering.
Spectrometers play a fundamental role in scientific research, quality control, medical diagnostics, environmental monitoring, and numerous other fields, enabling us to understand and interact with the world around us at a deeper level.
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | 190-1100 nm |
Optical System | Double Beam |
Mobility | Portable |
Spectral Bandwidth | 1 nm |
Brand | Stellarnet |
Wavelength Accuracy | +-0.3 nm |
Wavelength Repeatability | +-0.1 nm |
Photometric Accuracy | +- 0.1% T |
Product Details:
Minimum Order Quantity | 1 Piece |
Wavelength Range | 190-1100 nm |
Optical System | Single Beam |
Spectral Bandwidth | 1 nm |
Mobility | Portable |
Wavelength accuracy | +-0.3 nm |
Wavelength Repeatability | +-0.1 nm |
Lamp Type | Tungsten Halogen Lamp |
Laboratory Spectrometer: Analyzing the Secrets of Light and Matter in Research
A Laboratory Spectrometer is a sophisticated scientific instrument used in research laboratories to study and analyze the properties of light, electromagnetic radiation, and various materials. This powerful tool enables scientists and researchers to gain valuable insights into the composition, structure, and behavior of substances.
Key Components and Working Principle:
Light Source: A laboratory spectrometer utilizes a controlled light source, such as a lamp or laser, to illuminate the sample under investigation.
Entrance Slit: The incoming light is focused through an adjustable entrance slit, which controls the amount of light entering the spectrometer and determines the spectral resolution.
Dispersive Element: The core component of the laboratory spectrometer is the dispersive element, which disperses the light into its different wavelengths or frequencies. Common dispersive elements include prisms, diffraction gratings, and interferometers.
Detector: The dispersed light is then detected by a highly sensitive detector, such as a photodiode array or a charge-coupled device (CCD). The detector measures the intensity of the light at different wavelengths or frequencies, generating a spectrum.
Types of Laboratory Spectrometers:
There are various types of laboratory spectrometers, each designed for specific applications:
Optical Spectrometer: Used to study the visible, ultraviolet, or infrared regions of the electromagnetic spectrum.
Mass Spectrometer: Analyzes the masses and charges of ions to identify the chemical composition of samples.
NMR Spectrometer: Utilizes nuclear magnetic resonance to study the magnetic properties of atomic nuclei, providing insights into molecular structures.
X-ray Spectrometer: Analyzes X-rays to study the elemental composition and crystallographic structure of materials.
Applications:
Laboratory Spectrometers have diverse applications in numerous scientific disciplines:
Chemistry: Used to analyze chemical compounds and identify their molecular structures.
Physics: Applied to study the properties of light, electromagnetic radiation, and matter.
Environmental Science: Employed to analyze air and water quality, identify pollutants, and monitor environmental changes.
Material Analysis: Utilized to characterize and identify materials in materials science and engineering.
Advantages:
Laboratory Spectrometers offer numerous advantages in research and analysis:
Precise Measurements: Spectrometers deliver accurate and high-resolution data, enabling researchers to make detailed observations and draw meaningful conclusions.
Non-Destructive Analysis: Spectroscopy is often non-destructive, allowing researchers to study samples without altering their properties.
Versatility: Different types of spectrometers can be used to analyze a wide range of materials and properties.
Cutting-Edge Research: Spectrometers play a vital role in pushing the frontiers of scientific knowledge and advancing research in various fields.
Laboratory Spectrometers are essential tools that empower scientists and researchers to explore and understand the world at the atomic and molecular levels, driving innovation and discoveries in diverse scientific disciplines.