We develop technologies that connect cleaner energy, smarter thermal systems and the recovery of valuable resources.
Explore our technologiesFrom wind capture to well control, our development work focuses on practical engineering challenges in energy and resource use.
eMoya explores a different approach to distributed wind generation. Its paired rotor architecture and central airflow deflector form the basis for ongoing mechanical and aerodynamic development.
Development focus: rotor performance, structural integrity, generator integration and testing under representative wind conditions.
Ian Roos founded Gini Technologies to develop technologies for energy and resource applications. His founding role connects the company's direction with a portfolio spanning eMoya, Fluxion, Pavilion technologies, cavitation separation and AICV.
The common thread is practical engineering: turning a defined operating problem into a system that can be developed, tested and applied.
Earlier ORS project experience covered heavy-oil recovery, oil–water separation, storage-tank treatment and produced-water processing. This provides the background to the resource-recovery strand of the portfolio.
Explore Pavilion technologiesThe ORS project history records field work in West Texas on hydrodynamic cavitation for gas and hydrocarbon separation, alongside salt-reduction treatment for produced water.
Explore cavitation separationFollowing the oil-industry slowdown, ORS redirected its treatment work toward mining wastewater and brine applications, extending the engineering experience beyond oil production.
Under founder Ian Roos, Gini Technologies presents five development areas: eMoya wind generation, Fluxion thermal infrastructure, Pavilion resource recovery, cavitation separation and AICV well control.
Explore eMoya · Explore Fluxion · Explore AICVEarlier project milestones describe ORS experience; the Gini portfolio brings these technology themes into its current development focus.
Gini Technologies brings together development across renewable generation, thermal infrastructure, resource recovery, separation and intelligent well systems.
Each platform addresses a distinct problem. Together, they reflect a focus on making better use of energy, materials and existing infrastructure.
Define the duty, constraints and integration requirements before selecting the solution.
Bring mechanical, process and control engineering into a coherent system.
Use modelling, prototype testing and measured results to guide the next stage of development.
Establish the application, process conditions, installation limits and criteria for a successful result.
Refine the architecture, component interfaces and controls through design and prototype development.
Assess performance, reliability and integration before progressing to a project-specific deployment.
They address how energy is generated and managed, how resources are recovered, and how industrial flows are controlled. Gini presents these as a connected development portfolio, while each platform retains its own application and engineering requirements.
Pavilion technologies address oil recovery and produced-water processing. Pavilion Technologies is the Pavilion group's holding company; project execution sits within the operating businesses and their delivery partnerships.
No. Development and validation requirements vary by platform. Fluxion is an early-stage development platform, and the AICV work is a concept under engineering development. Specifications and suitability should be assessed for the individual project; this overview does not imply that every technology is commercially available.
Start with the site conditions, required capacity, feed or energy characteristics, installation constraints and acceptance criteria. Those inputs establish the basis for a technical assessment and the testing needed to confirm suitability.