NanoQAM Research Center offers characterization and analysis services by making its infrastructure and equipment available to other academic institutions and manufacturers. The research center offers access to different services:
This equipment allows the synthesis of nanomaterials (organic, inorganic or hybrid) and nano-biomaterials. These syntheses can be carried out in controlled (temperature, atmosphere) and automated ways.
High Temperature Tubular Oven (GSL-1500-50-UL)
High Temperature Tubular Oven (Lindberg/Blue Mini-Mite)
High Temperature Tubular Oven (OTF-1200X-III)
Solvent Purification System (MB-SPS)
These instruments allow the thermal properties of nanomaterials to be studied (stability, crystallinity, degradation product, phase change) under controlled atmospheres and over a wide range of temperatures.
Thermogravimetric analyzer (TGA Q500)
TGA coupled MS (TGA Q500/Discovery MS)
This equipment makes it possible to characterize the composition of materials by experimental techniques such as mass spectrometry, nuclear magnetic resonance, adsorption and atomic emission spectroscopies, etc.
X-ray diffractometer (D8 Advance)
- 600MHz NMR (Avance III HD)
- Solid 400MHz NMR (Avance III HD)
Raman microscope (inVia Reflex)
ICP coupled OES (5100)
Atomic absorption / Graphite furnace (SpectrAA 220 Z)
Atomic absorption / emission (SpectrAA 220 FS)
Microscopy and size measurements
Our set of microscopy equipment makes it possible to image the topography as well as the physicochemical activity of different surface types and to detect entities of micro- and nanometric sizes.
Zeta Potential / Particle Size Analyzer (ZetaPlus/Bl-PALS)
Particle Size Analyzer (Zetasizer Nano S90)
Atomic Force Microscope (MultiMode8)
Photo-Induced Force Microscope (Vista One)
Profilometer (Dektak XT)
Optical microscope (Eclipse LV150 + Digital Sight)
3D microscope in clean room (Olympus DX1000)
This equipment makes it possible to study the optical properties of nanomaterials: UV-visible, infrared, angle of rotation, fluorescence, luminance, etc.
UV-Visible-NIR spectrometer (Lambda 750)
FTIR-ATR spectrometer (Nicolet 6700 / Smart iTR)
FTIR-PM-IRASS spectrometer (Nicolet iS50 / Smart iTX / VEEAX III)
Steady-state spectrofluorimeter (QuantaMaster 40)
Nanotube spectrometer (NS2)
Micro-plate reader (Infinite M200)
FTIR spectrometer (4700)
All of this equipment allows the complete characterization of the activity and electrochemical properties (impedance, conductivity, etc.) of all types of materials.
8 Channel Battery Analyzers (BST8-WA)
Four-terminal sensing (S-302)
Multi-Potentiostats + Frequency Analyzer (1470/1255B)
Solar Simulator (SS0.5KW)
This liquid, gel and gas chromatography equipment allows the separation of different kinds of compounds (organic, monomers or polymers) and to determine the components thanks to various spectroscopic detection systems (UV, IR, refractive index and spectrometry massive).
GC/MS “Head-Space” (7890A GC/MS)
This equipment allows various characterizations of nanomaterials such as specific surface, porosity, viscosity, surface tensions and interactions or affinity constants.
BET Instrument (TMAX-BSD-PM2)
Dynamic tensiometer (DCAT11)
This equipment allows for direct or indirect micro or nanometric prints (masks) of organic, inorganic or hybrid nanomaterials.
Materials Printer (DMP 2800)
Lithography – Mask Aligner (Hydralign Series 2000)
Aerosol spray printing (Aerosol Jet)
All of this equipment makes it possible to deposit thin layers (metals, parylene) by chemical vapor deposition (CVD) or eBeam techniques.
Parylene deposition system (Labcoter 2 PDS 2010)
Spin-coating in Clean room (WS-200-4C)
Engravings and surface treatments
This series of equipment allows the treatment and etching of surfaces: plasma cleaning, reactive ion etching, etching of printed circuits (manual or automatic).
Plasma cleaning system (PICO)
The purpose of the access policy is to regulate the conditions of use of the infrastructure while being flexible enough to encourage maximum use of our equipment. Users from UQAM as well as users from outside (academic or not) have access to the various NanoQAM equipment.
There are two ways to use the equipment :
- by autonomous use of equipment
- or by a request for services.
All users can become autonomous for the use of the equipment. This operating mode is preferred in the event that the user plans to use the equipment frequently. To become autonomous, users must undergo training in the use of the equipment and demonstrate their ability to operate properly. Users who are thus trained will not have to pay for the time spent by the personnel providing training on the instruments, nor the time spent using these instruments during their training, except for industrial users. In the event that the intended use of equipment does not justify the need for training, a service request may be made. An operator will then be responsible for handling the request.
The majority of the equipment is accessible 24 hours a day for autonomous users who receive authorization. In the case that an operator is required, use is limited to working days between 8.30 a.m. to 4.30 p.m. The same restriction may apply for security reasons for certain equipment.
The fact that the pricing structure based on duration of use can seriously hamper the development of certain projects requiring the intensive use of certain devices is a legitimate and recognized concern. In order to maintain flexibility and also to encourage such projects, access to any of the resources can be negotiated with the Director on an individual basis, especially for projects that will have an impact in developing new techniques.
The future of nanomaterials
We are a multidisciplinary research center with expertise and scientific infrastructure dedicated to the synthesis and characterization of nanomaterials and nanometric systems.