HTF COMPACT ®

COMPACT ® SHAPING THE FUTURE OF NANOFLUIDS

HTF Compact comprises a High-End patent protected formulation which improves heat transfer in hydronic systems. It rearranges the molecular structure of the fluid improving the heat transfer rate. The presence of nanoparticles enhances the thermal conductivity of the nanofluid due to a better interaction within the heat transfer regions through a micro convection mechanism (Brownian motion) of nanoparticles in the coolant. Because of this increase in heat transfer, HTF Compact enables the heat to be transferred faster and more efficiently, improving energy efficiency by up to 40% in broad applications such as HVAC or boiler systems.

HTF Compact can be used in a broad spectrum of industries where a hydronic closed system is present: Data Centers, Energy Storage, Hotels and Resorts, Chemical Industry, Oil&Gas, Solar Energy, Wind Power, etc.

HTF COMPACT WEBSITE

Why HTF Compact ® ?

Energy Saving NanoFLUID
HTF Compact
Worldwide Energy Consumption will increase by 56% between 2020 and 2040. HTF compact can greatly contribute to energy consumption reduction. In simple words, our novelty product can manage heat loads faster, which results in tangible savings generation.
INCREASES EFFICIENCY
HTF Compact
Hydronic systems usually utilize water or a combination of water and glycols when freezing protection is required. The Glycols presence leads to reduced heat transfer and reduces operational costs. The introduction of HTF Compact substantially improves the thermal conductivity of the coolant and hence, increases the heat transfer efficiency creating a positive economic impact.
IMPROVES DESIGN AND LAYOUT
HTF Compact
Increasing space and layout limitations at existing systems require to move towards optimized process solutions. HTF Compact allows efficient capital investment design by reducing the size of main equipment to manage a defined heat load
ENVIRONMENTALLY FRIENDLY
HTF Compact ®
By 2040 fossil fuels will match 80% of global energy demand, substantially increasing CO2 emissions. HTF Compact efficiency directly affects the CO2 footprint of a hydronic system by means of less energy demand and therefore, less associated CO2 gas emissions

HTF Compact ®: Striking Facts

HTF COMPACT – THE POWER OF NANOFLUIDS

Reduced carbon emissions
Fast return on investment
Up to 40% savings vs. water or water + glycol
No modification on equipment needed
Increased equipment lifetime and reduced maintenance costs
Formulated with corrosion inhibitors

HTF COMPACT – HOW IS HEAT TRANSFER OPTIMIZED?

The increased thermal conductivity is attributed to the presence of nanoparticles. Thermal conductivity in a heat transfer fluid is the main factor influencing the heat transfer efficiency. HTF Compact reduces the approach temperature in heat exchangers whether they are water-to-water, water-to-air or refrigerant-to-water. Through a more efficient heat transfer, the energy consumer (e.g. boiler, heat pump or chiller) needs to run less to reach the required set points.

HTF Compact enhances the heat transfer of water and glycol systems, and allows these systems to maintain desired temperature with less energy required. This is achieved through a substantial decrease in compressor run time, resulting in long lasting savings in energy consumption. Finally, environmentally conscious companies can benefit from a carbon footprint reduction and demonstrate their social responsibility when using HTF Compact.

HOW IS HTF COMPACT APPLIED?

HTF Compact can be added to existing cooling or heating systems using coolants or base fluids (water, ethylene glycol or propylene glycol) without having to replace the existing circulating fluids. HTF Compact can operate at temperatures between -40° F. (-40° C) and 225° F (106° C) at atmospheric pressure. Our nanofluid does not compromise the lifetime of an existing fluid, and performance is assured over time.

HTF Compact is manufactured with corrosion inhibitors and will last as long as the base fluid. The particle size in HTF Compact is 6,000 times smaller than trace minerals found in regular tap water. The particles will not even get caught in the smallest of hydronic system filters due to the nano size nature of nanoparticles.

HTF COMPACT – EFFICIENT THERMAL FLUID

Although water is thought to be an effective heat transfer fluid, it can cause multiple setbacks to systems, such as corrosion, freezing, calcification, and bacteria generation. HTF Compact helps solve these issues. It was already installed in important civil and industrial applications. Usually, any system using glycol for freeze protection requires the oversizing of equipment by up to 20% to compensate for the decrease in heat transfer associated with glycols. HTF Compact greatly improves the heat transfer of these system,s and removes the energy penalty that is correlated with any water/glycol mixture.

Our nanofluid has proven to be stable meaning that nanoparticles fully stay in suspension and do not agglomerate over time. HTF Compact has undergone rigorous laboratory testings which were validated by prominent independent universities as well as in real-world applications. The nanoparticles contained in HTF Compact do not cause electrolysis, as they are oxides. HTF Compact will not cause erosion/ corrosion in systems or in equipment. Copper oxide, main active component of HTF Compact, is inert and non-carcinogenic.

RETURN ON INVESTMENT AND PAYBACK PERIOD

The payback period when using HTF Compact can range from 9 months to 2.5 years depending on the design, operating characteristics of the plant, energy consumption rate and energy unit costs. TCT nanotech is ready to assist and provide a feasibility study for your specific project ROI based on your current application specifics. Feel free to send us a request and we will return to you with a detailed feasibility study including a return on investment calculation

TECHNICAL SUPPORT

We offer free technical support with products installation and maintenance. Our team, with a proven experience in materials and chemical engineering and analytics, continuously collaborate with universities and research centers so to provide our customers with updated and useful insights.

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