CARMIN Microbubbles Injector
CARMIN microbubbles injector:
The generation of gas microbubbles by CARMIN generator requires a high pressure water flow to produce a cavitation pocket. A controlled gas flow is then injected into the attached vapor cavity. The gas then breaks up into a cloud of very finely dispersed microbubbles.
Main characteristics:
- Mean microbubbles diameter can be easily adjusted from 20 to 200 µm
- Bubbles maximal production rate is several millions bubbles per second per injector.
- 2 utilizations: atmospheric air suction or gas injection from a pressurized source.
- Minimum equipement required to operate CARMIN: liquid pump
Worldwide shipping
(for our standard products, Europe: 2 days / North and South America, Asia, Oceania, Africa: 8 days)
For technical information or to receive a formal quote, contact us at info@ylec-diffusion.com
1 technology x 4 sizes x 2 materials x 2 assemblies
= 16 possible combinations to cover various needs
Our additional equipment to operate CARMIN generator:
- liquid pump
- water in-line filter
- complete liquid supply line (pump, water in-line filter, manometer)
- complete gas supply line (pressure controller, air filter, manometer)
- spare parts
Our other integrated devices and ready-to-use solutions :
- Assembly of CARMIN (rail)
- Exploratory bench integrated CARMIN
- Lab set-up: Similarly to DAF jar tester, this set-up (using CARMIN instead of DAF process) can be used to run preliminary tests to evaluate the influence of bubbles size, coagulants/floculants and ratio between "white water" volume and wastewater volume.
- Custom made "Bubbler floor": To be placed inside column or tank (see picture on the left). Size and integration to be discussed with us (constact us at info@ylec-diffusion.com).
- Wing-CARMIN for velocimetry, PIV/LDV applications
- Customized CARMIN on demand
Some examples of microbubbles sizes distribution of CARMIN generators:
Source:
- CEA Cadarache (France): 'Micro-bubbles cloud's spectroscopic nonlinear coefficient measurements towards its characterization'
- Stanford University: Intrinsic Electric Field Triggers Phenol Oxidative Degradation at Microbubble Interfaces
- Stanford University: Intrinsic Electric Field Triggers Phenol Oxidative Degradation at Microbubble Interfaces (supplementary information)
- University of Manitoba: Micro-Bubbles Enhance Photon Utilization Efficiency in Ultraviolet-Based Advanced Oxidation Processes
- UCLM Universidad Castilla-La Mancha: Storage of energy using a gas-liquid H2/Cl2 fuel cell: a first approach to electrochemically-assisted absorbers
Non-exhaustive examples of application:
Wastewater treatment, Flotation, PIV measurements, Aquaponics/Hydroponics, Oxygenation, Cleaning/disinfection, Ozone injection, Chemical reactions activation, Advanced Oxidation Processes...
