

Software
Alpha versions of the acquisition and post-processing software are available now and allow serial communication with the B&W Tek spectrometer.
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Test
Alpha versions of the acquisition and post-processing software are available now and allow serial communication with the B&W Tek spectrometer.
Quick Introduction
What is Raman Spectroscopy?

In simple terms, a Raman spectrometer uses a laser to focus light onto a small spot on a sample. The photons excite molecular vibrations that scatter the light and uniquely shift its wavelength – known as Raman scattering. By filtering out the Rayleigh-scattered, original laser light, we isolate and capture the desired signal, guide it into a spectrometer and plot it as a unique spectrum.

Rayleigh Scattering
- so-called inelastic scattering
- affects about 1 in 10 million photons
- incident light changes direction and energy
- the molecule gains or loses energy = wavelength shift

Raman Scattering
- so-called elastic scattering
- the most common, visible everyday scattering
- incident light only changes direction
- wavelength stays the same

Fluorescence
- e.g., the glow under UV
- incident light is absorbed and re-emitted
- much stronger than the Raman signal
- emitted in random directions

Rayleigh Scattering
- so-called inelastic scattering
- affects about 1 in 10 million photons
- incident light changes direction and energy
- the molecule gains or loses energy = wavelength shift

Raman Scattering
- so-called elastic scattering
- the most common, visible everyday scattering
- incident light only changes direction
- wavelength stays the same

Fluorescence
- e.g., the glow under UV
- incident light is absorbed and re-emitted
- much stronger than the Raman signal
- emitted in random directions

Rayleigh Scattering
- so-called inelastic scattering
- affects about 1 in 10 million photons
- incident light changes direction and energy
- the molecule gains or loses energy = wavelength shift

Raman Scattering
- so-called elastic scattering
- the most common, visible everyday scattering
- incident light only changes direction
- wavelength stays the same

Fluorescence
- e.g., the glow under UV
- incident light is absorbed and re-emitted
- much stronger than the Raman signal
- emitted in random directions
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White_SVG_Parts_1 (9)
White_SVG_Parts_1 (8)
White_SVG_Parts_1 (6)
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Quick Introduction
What is Raman Spectroscopy?

In simple terms, a Raman spectrometer uses a laser to focus light onto a small spot on a sample. The photons excite molecular vibrations that scatter the light and uniquely shift its wavelength – known as Raman scattering. By filtering out the Rayleigh-scattered, original laser light, we isolate and capture the desired signal, guide it into a spectrometer and plot it as a unique spectrum.
- Laser Pointer
- Optical Filters
- Focusing Lenses
- Spectrometer
Non-destructive
Liquid, solid & gaseous
In-situ analysis

Rayleigh Scattering
- so-called inelastic scattering
- affects about 1 in 10 million photons
- incident light changes direction and energy
- the molecule gains or loses energy = wavelength shift

Raman Scattering
- so-called elastic scattering
- the most common, visible everyday scattering
- incident light only changes direction
- wavelength stays the same

Fluorescence
- e.g., the glow under UV
- incident light is absorbed and re-emitted
- much stronger than the Raman signal
- emitted in random directions

Rayleigh Scattering
- so-called inelastic scattering
- affects about 1 in 10 million photons
- incident light changes direction and energy
- the molecule gains or loses energy = wavelength shift

Raman Scattering
- so-called elastic scattering
- the most common, visible everyday scattering
- incident light only changes direction
- wavelength stays the same

Fluorescence
- e.g., the glow under UV
- incident light is absorbed and re-emitted
- much stronger than the Raman signal
- emitted in random directions

















