Infrastructure
- Home
Infrastructure
Ultra-High Performance Liquid Chromatography Quadrupole Time-of-Flight (UHPLC Q-TOF)
The Ultra-High Performance Liquid Chromatography Quadrupole Time-of-Flight (UHPLC Q-TOF) is an advanced analytical instrument that combines the superior separation capabilities of UHPLC with the high-resolution and accurate mass determination of Q-TOF mass spectrometry, providing unparalleled detail in complex sample analyses.
New infrastructure purchased with funds from the action
GC-IMS System (e-nose)
New infrastructure purchased with funds from the action
RAMAN spectrometer
The Raman spectrometer is a sophisticated analytical tool that employs the Raman scattering phenomenon to provide detailed molecular vibrational information, enabling the identification and characterization of materials with high specificity and sensitivity.
New infrastructure purchased with funds from the action
Nuclear Magnetic Resonance (NMR) Spectroscopy System
The Nuclear Magnetic Resonance (NMR) spectrometer is a powerful analytical device that exploits the magnetic properties of atomic nuclei to elucidate molecular structure and dynamics, offering profound insights into the nature and behavior of molecules in a variety of environments.
New infrastructure purchased with funds from the action
Fourier Transform Infrared Spectroscopy
In general, the infrared absorption spectrum is a fundamental property of every molecule and serves as a fingerprint of the compound and the configuration of its characteristic groups. Because the amount of absorbed energy is proportional to the concentration of the material to be measured, it is possible after calibration to calculate the concentration of a sample. This is done by comparing the intensity and width of a characteristic band with that of a spectrum containing a known concentration of the component in question, provided that the Lambert-Beer law holds.
Existing infrastructure used to implement the action
LC MS/MS triple quadrupole liquid chromatograph
LC MS/MS triple quadrupole liquid chromatograph
Existing infrastructure used to implement the action
Dynamic Light Scattering (DLS) System
Dynamic Light Scattering (DLS) System
Existing infrastructure used to implement the action
Gas chromatographs with MS, FPD, FID and ECD detectors
Gas chromatographs with MS, FPD, FID and ECD detectors
Existing infrastructure used to implement the action
Gas chromatograph with FID, TCD and ECD detectors
Gas chromatograph with FID, TCD and ECD detectors
Existing infrastructure used to implement the action
Gas Chromatography - Mass Spectroscopy
Existing infrastructure used to implement the action
Cold rooms (refrigerators, freezers and deep freezers)
Existing infrastructure used to implement the action
Brookfield viscometer
Brookfield viscometer
Existing infrastructure used to implement the action
Climate chamber
Climate chamber
Existing infrastructure used to implement the action
High pressure homogenizer
High pressure homogenizer
Existing infrastructure used to implement the action
Ultrapure water production system
Ultrapure water production system
Existing infrastructure used to implement the action
Single-Phase Asymmetric Flow Field Chromatography System (AsFFF)
Single-Phase Asymmetric Flow Field Chromatography System (AsFFF)
Existing infrastructure used to implement the action
HPLC liquid chromatograph with PDA, RI and FLD detectors and post-column derivatization system
HPLC liquid chromatograph with PDA, RI and FLD detectors and post-column derivatization system
Existing infrastructure used to implement the action
Mass spectroscopy MALDI TOF (Matrix Assisted Laser Desorption Ionization Time of Flight)
In MALDI spectrometry (matrix laser desorption-ionization) protein ions are created and accelerated through an electric field. These ions travel through an acceleration tube, where the smaller ions travel faster and reach the detector first. Therefore, the time of flight (TOF) in the electric field is a parameter dependent on the mass or more precisely on the mass/charge ratio. Minimal quantities of biomolecules of a few picomoles (pmol) to femtomol (fmol) are needed for analysis. The resulting mass spectrum for the proteins under analysis varies between different microorganisms. For the final identification, a comparison is made with the spectra found in reference libraries.
Existing infrastructure used to implement the action
Near Infrared Spectroscopy
Infrared spectroscopy relies on the interaction of matter with infrared light. This interaction causes changes in the dipole moment of the molecule, which is studied by creating vibrations. These vibrations, which appear in an infrared spectrum, can give us the identity of the chemical elements present in the sample. Usually the absorption of light by the sample is measured with respect to frequency, which is expressed by the Beer-Lambert law.
Existing infrastructure used to implement the action