This article highlights the collaboration between CPFD Software and the University of Hull in utilizing Barracuda Virtual Reactor for pioneering research on low-carbon hydrogen production through Sorption-enhanced steam reforming, showcasing the software’s efficiency, scalability, and pivotal role in advancing sustainable technologies.
CPFD Software announced that it has entered into a software licensing and services agreement with ACT-ion Battery Technologies. ACT-ion Battery Technologies are developing a novel continuous supercritical hydrothermal manufacturing process for coated single crystal cathode active materials in collaboration with Argonne National Laboratory.
CPFD Software announced that it has entered into a software licensing agreement with Simonpietri Enterprises LLC to model gasification reactions to generate clean hydrogen fuel out of construction and demolition debris solid wastes.
CPFD Software announced that it has entered into a software licensing agreement with Aurora Hydrogen, who are developing a clean hydrogen production technology that utilizes efficient microwave energy without generating any CO2 emissions or consuming water.
CPFD Software Partners with Microsoft, Encina, and NVIDIA to Aid Development of Novel Plastic Recycling Technologies and to advance the urgent and vital work of designing next-generation recycling facilities.
NVIDIA will be hosting an hour long webinar on how Barracuda Virtual Reactor leverages NVIDIA technology as well as cloud computing to accelerate the development of plastics recycling technologies.
CPFD Software and Anellotech, Inc. (Pearl River, NY) announce their software licensing agreement. Anellotech aims to use CPFD’s Barracuda Virtual Reactor® as part of the design process for a commercial-scale fluidized bed reactor for its cutting-edge Plas-TCat™ process.
This thesis by Christopher McIntyre from the University of Ottawa explores the use of CPFD modeling related to pressurized chemical looping combustion.
Virtual Reactor simulations were used to evaluate the re-design and reconfiguration of a dual-fluidized bed (DFB) gasification system into a recirculating pyrolysis reactor, by researchers at NREL, UCSD, and West Biofuels, LLC.
This simulation study the University of Western Ontario demonstrates the scalability of chemical looping combustion (CLC) to achieve efficient capture of biomass-derived CO2.