Share
Which Of The Following Spectroscopy Technique Considers Finger-Print Region
Question
Also See:
- ENGAGEMENT RING FOR MEN IN WHICH FINGER
- WHICH OF THE FOLLOWING PLACE HOUSES INDIA SATELLITE LAUNCHING STATION
- WHICH OF THE FOLLOWING LIES BETWEEN-1 AND 0
- Which Of The Following Approaches Is In Line With Agile Principle To Handle Architecture And Design
- Which Of The Following Numbers Must Be Added To 5678 To Give A Reminder 35 When Divided By 460?
- Amazfit Brand Of Smartwatches Comes From Which Of The Following Parent Companies
- Weakest Acid Among The Following Is O-Nitrophenol O-Cresol P-Cresol Ethanol
- District Central Cooperative Bank Has Which Of The Following Functions
- The Contractile Vacuole Present In Paramecium Has Following Functions
- Which Of The Following Circumstances Bank Was Close Customers Account
- Which Of The Following Person Cannot Open Institutional Bank Account
- Which Of The Following Financial Statement Is Generally Prepared First
- Which Of The Following Place House Indian Satellite Launching Station
in progress
0
1 Answer
Answer ( 1 )
Which Of The Following Spectroscopy Technique Considers Finger-Print Region
Spectroscopy is a powerful tool that can be used for a variety of purposes, but one of the most common uses is fingerprinting. Fingerprinting is a process by which individual fingerprints are extracted from an object and used to identify that object. Which of the following spectroscopy technique considers finger-print region? A. Raman spectroscopy B. Infrared spectroscopy C. Watershed spectroscopy D. Static electricity spectroscopy
NIR Spectroscopy
NIR spectroscopy is a technique that considers the finger-print region of the spectrum. This region includes wavelengths that are sensitive to chemical constituents in fingerprints. By analyzing fingerprint data, NIR spectroscopy can provide valuable information about the substance present in the sample.
NIR spectroscopy is particularly useful for analyzing samples containing small amounts of material. By measuring spectral features at specific wavelengths, NIR spectroscopy can identify particular elements and compounds present in the sample. This information can be used to identify specific substances or contaminants.
NIR spectroscopy is also capable of identifying surface features on materials. By measuring Specific reflectance (SR) values, NIR spectroscopy can determine the composition of materials such as metals and plastics. This information can be used to improve manufacturing processes or identify potential flaws in products.
SWIR Spectroscopy
Finger-print region spectroscopy is a technique that considers the finger-print region of the spectrum to extract chemical information. This technique is effective because it can differentiate between different organic molecules based on theirfinger-print signatures.
Raman Spectroscopy
Raman spectroscopy is a technique that uses the Raman spectrum to determine the composition, structure, and chemical properties of molecules. The Raman spectrum is a series of peaks that arise when light waves vibrate through a molecule. By measuring the height and intensity of these peaks, scientists can determine the molecular makeup of the object being analyzed.
One of the most important factors to consider when performing Raman spectroscopy is the finger-print region. This region refers to the specific area on a sample where Raman spectra are typically strongest. By analyzing this region specifically, researchers can more accurately identify and quantify molecules present in an object.
By carefully selecting which regions to analyze, Raman spectroscopy can provide scientists with valuable information about molecules and their structures. Additionally, this technique can be used to identify potential contaminants or toxins present in samples. By understanding how various molecules interact with one another, scientists can create more effective compounds and therapies.
FTIR Spectroscopy
The Fourier transform infrared spectroscopy technique is one that considers the fingerprint region of a molecule. This is because the fingerprint region contains some of the most vibrational information about a molecule. By using this information, FTIR can more accurately determine the structure of a molecule.
Conclusion
It is difficult to determine the region of finger-print using spectroscopy because fingerprints are complex patterns. Some fingerprint analysis techniques, such as Fourier transform infrared spectroscopy (FTIR), may consider the entire fingerprint pattern while others, like atomic force microscopy (AFM), focus on details within a certain region of the fingerprint.