Custom heating, cooling, and fan coil systems. Designed around what your process needs—and built to fit where you need them.
Our systems
Heating and cooling equipment should work around your application. Start with your requirements, then build the system around them.
Hydronic units designed around your required capacity, fluid, supply temperature, flow, and operating cycle. Cooling-only or heating-and-cooling configurations, with piping, pumps, and controls selected for the process.
Discuss a hydronic systemFan coil units designed to match your available space and heating or cooling requirements. Coil selection, airflow, mounting arrangement, connection locations, and service access are considered together—not as afterthoughts.
Discuss a fan coil unitDesigned per process
Your load, your operating conditions, your footprint. We work from those constraints to develop a practical system layout, rather than asking you to adapt your process to a standard box.
Designs can be developed for specified environments within this range. Operating limits, capacity, fluid protection, and component selection are confirmed for each project; this is not a universal rating for every unit.
Open-skid construction
An open-skid layout makes the arrangement of piping, pumps, heat exchangers, and controls part of the design. Components remain accessible for installation, inspection, and service, with space allocated where it matters.
Frame material and finish are selected for the setting. Guards, electrical enclosures, and weather protection are specified where the application requires them.
U.S. project configuration
Work directly with Osprey Chillers to define the application, layout, U.S. electrical configuration, documentation, and project-specific approval path for your facility.
U.S.-focused sourcing
For U.S. projects, we can evaluate and prioritize U.S.-origin or domestically stocked compressors, pumps, controls, electrical components, and service parts where project requirements and availability allow. This can simplify procurement, improve replacement-parts availability, and may reduce exposure to cross-border tariffs and delays.
Final component sourcing, country of origin, availability, and tariff treatment are confirmed for each project.
ThermaVoltHx / Four-circuit thermal conversion
A traditional chiller consumes electricity to move heat, then rejects that heat outdoors. ThermaVoltHx is being developed as a four-circuit system: an R-1224yd(Z) power circuit, a separate pumped R-1224yd(Z) heat-output circuit, a dedicated POE oil circuit, and a process-fluid circuit through HX1. The heat-output circuit can serve a fan coil or an optional hot-water recovery exchanger. R-1224yd(Z) was selected for its low environmental impact and very low global-warming potential. Generated power can offset site demand and, through an approved grid-tied inverter and utility interconnection, may be exported and sold back to the grid where local programs permit.
The operating concept
The 25–30% propylene-glycol process fluid passes through HX1, transferring process heat into the power circuit.
In HX1, R-1224yd(Z) absorbs heat from the glycol circuit and leaves toward the booster compressor.
The booster screw compressor raises the refrigerant pressure and temperature before it enters the expander.
A reverse screw compressor acts as the expander and drives a permanent-magnet generator as the refrigerant expands.
HX2 condenses the power-circuit refrigerant while transferring useful heat into the separate R-1224yd(Z) circuit.
The electronic expansion valve meters the condensed refrigerant, reduces its pressure, and returns it to HX1.
A pump circulates the second R-1224yd(Z) circuit from HX2 through a fan coil or optional hot-water recovery exchanger and back to HX2.
A separate POE oil circuit with reservoir, pumps, filtration, pressure control, and oil cooling supports the booster compressor and expander.
Concept specifications
ThermaVoltHx is a development-stage concept. The approximate 488,000 BTU/h process-cooling and 388,000 BTU/h optional hot-water-recovery figures are preliminary design targets from the final concept drawing, not tested ratings. Actual performance depends on fluid properties, flow, temperatures, component selection, and operating conditions. Cooling capacity and recovered heat are thermal duties, not electrical output. All four circuits, R-1224yd(Z) selection, ratings, electrical interface, grid interconnection, approvals, net power reduction, and overall performance must be confirmed through prototype testing and project-specific validation. Cooling, heat-recovery, and generation targets are not guaranteed commercial ratings; power export depends on the inverter, local utility rules, an approved interconnection agreement, and any applicable metering or export program.
Let’s discuss the details
Have a defined specification or an early-stage concept? Start with your process, available space, and operating conditions.
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