Kaiser Raman PhAT probe
The no-touch, focus-free solution for Raman lab or process solids measurement
For solids and semi-solids analysis, the PhAT probe reigns supreme. Its state-of-the-art, stainless-steel probe design produces representative, focus-free, quantitative Raman measurements. The PhAT probe illuminates a large surface area and eliminates the need to align the probe for surface roughness.
A large excitation spot (6 mm) and multiple collection fibers in the PhAT probe achieves heterogenous solids sampling in both the axial and lateral dimensions. In doing so, it provides information on deeper layers in addition to the surface, which is highly useful for measuring heterogenous solids such as tablets, capsules, food solids, and polymer beads. To enhance sampling flexibility, both insertion and non-contact sampling optics are available for the PhAT probe.
Additional Components
Kaiser Raman Rxn2 Hybrid Analyzer
Provides both traditional small spot Raman sampling and PhAT-based wide area Raman sampling
Calibration Accessory
Easy-to-use calibration protocol for qualitative and quantitative spectral analysis
RamanRxn probe
Laboratory probe compatible with immersion, bioprocess, and non-contact optics
Benefits
- Non-contact measurement of heterogeneous solids for better representation
- Improved process control and efficiency through faster measurements
- Non-destructive measurements from a distance
- Reproducible sampling
- “Focus free” alignment
- No need to align probe for surface roughness
- Surface and deep layer analysis
Field of Application
- Polymers: extruded pellet quality, crystallinity, density, raw materials
- Pharmaceutical: crystallinity, polymorphism, granulation, blend uniformity, content uniformity, coating, tableting
- Chemicals: final product quality, blend impurities, crystallinity, raw materials
- Food & Beverage: quality of dairy solids, meat and fish composition
Features and Specifications
Measuring principle
Raman
Laser wavelength
785 nm
Spectral coverage
175-1890 cm-1 (785 nm)
Maximum laser power into probehead
<499 mW
Sample interface
Temperature: 10°C to 40°C
Pressure: ambient
Relative humidity: 20-80%, non-condensing
Body and window materials
Body: 316L stainless steel
Window: optical-grade materials
Fiber optic cable
Design: PVC jacketed, proprietary construction
Connections: proprietary electro-optic
Temperature: –40 to 80°C
Length: 15000 mm, custom lengths available
Minimum bend radius: 152.4 mm (6 inches)
Length (mm)
305
Diameter (mm)
46
Working distance
1 mm spot size = 35 mm focal length
1.5 mm spot size = 50 mm focal length
3 mm spot size = 125 mm focal length
4.7 spot size = 200 mm focal length
6mm spot size = 250 mm focal length
Hazardous area certifications
ATEX, North American, IECEx
Documents/ Manuals/Software
Brochures:
Kaiser Raman Probes Brochure
Robust optical measurement of chemical composition
Kaiser Raman Analyzers Brochure
Robust optical measurement of chemical composition
Application Notes:
EVENTS
IFPAC-2021 (February 28 – March 5, 2021)
Join us for our three virtual presentations at IFPAC-2021:
March 1st at 1-5:30 PM EST – Smart‐Raman spectroscopy for automated monitoring and control of industrial processes
March 2nd at 1-5:30 PM EST – Tips and tricks to make process Raman spectroscopy a success
March 4th at 7:45-11:00 AM EST – Raman spectroscopy for automated monitoring and control of bioprocesses
NEWS
2020 Pharma Innovation Award
Our Kaiser Raman bIO-PRO, KS bioprocessing probe was recently selected as a 2020 Pharma Innovation Award winner by Pharma Manufacturing Magazine!
The Kaiser Raman bIO-PRO, KS probe provides fast, accurate measurement of key bioprocess variables from lab-to-process. It is an exciting advancement in our already well-established Kaiser Raman bioprocess product portfolio.
EVENTS
2021 Pittcon Conference & Expo (March 8-12, 2021)
Join us during our two virtual presentations at the 2021 Pittcon Conference & Expo:
March 8th at 1:30 PM EST – The Role of Process Raman Spectroscopy in Chemical and Polymer Applications
March 12 at 9:30 AM EST – Analytical Model Development for Raman Spectroscopy of Pharmaceutical Solids Processing and Upstream Bioprocessing