The Problem & Opportunity - Lack of balcony space in high-rise flats - Humidity & monsoon issues delay natural drying - Tumble dryers consume high energy & space Solution: > Wall-aligned clothes dryer using centralized hot water system Key Features of the Clothes Dryer Cabinet - Uses 50°C centralized hot water – no electric heating - Dries 15–20 garments in 60–90 minutes - Moist air exhaust duct included - Compact 900×600×1800 mm wall-mountable cabinet - Quiet EC fan-based operation Installation Requirements - Location: Utility room, corridor niche, or laundry area - Hot water inlet & return line from centralized HP - Power supply (standard socket) - Moist air duct to the shaft/balcony - Can be pre-installed or retrofitted Benefits to Builders & Residents - Adds premium amenity to flats - No visible drying clutter - 80% lower energy than tumble dryers - Green building certification points - Ideal for monsoon-prone tropical cities

Heat Pump Spice Dryer – For High-Quality Spice Drying This heat pump dryer is specially designed for batch drying of high-value spices like cardamom, cloves, ginger, and more. It uses low-temperature drying (45–60°C) with a closed-loop air system to protect the natural oils, color, and aroma of the spices, while saving energy. Available Models: SP-25 Capacity: 25–30 kg per batch Size: 1200 × 700 × 800 mm SP-50 Capacity: 50–60 kg per batch Size: 1600 × 900 × 1000 mm SP-100 Capacity: 100–120 kg per batch Size: 1800 × 1100 × 1200 mm All models come with durable stainless steel trays (sizes: 600×400 mm or 800×600 mm) Key Benefits: ✅ Preserves the natural color of spices ✅ Enhances aroma and flavor ✅ Retains essential oils and oleoresins ✅ Protects spices from dust and pollution with filtered air ✅ Better yield and quality for higher export value

Project at - ACG, Pithampur, MP - Total 60,000 L of water heated to 80 °c. per day for which the total heat load required is 33,00,000 kcal. - The heating is being done using Compound Parabolic Concentrators to provide 60,000 litres of hot water at 80°c. - The Average daily fuel saving achieved is 400L of HSD. - The carbon emissions saved upon installation of the solar system offered by Heatray Solar would be 300 tons per year. - The project thus has huge environmental benefits equivalent to carbon mitigation by a healthy forest of 140 acres

Apar Industries Umargam, Gujarat - Total 3000 L of water heated to 80°c. per day for which total heat loadThe required is 1,65,000 kcal/day. - The heating is being done using a Solar CPC Heating System to provide 3000 litres of hot water at 80°c. - The Average daily fuel saving achieved is 26 kg of PNG. - The carbon emissions saved upon installation of the solar system offered by Heatray Solar would be 4.7 tons per year. - The project thus has huge environmental benefits equivalent to carbon mitigation by a healthy forest of 1.7 acres.

Project at - Sirius Food Pvt. LTd. (Kolhapur) - Total 5000 L of water heated to 80°c. per day, for which the total heat load required is 3,00,000 kcal. - The heating is being done using a Compound Parabolic Concentrator Solar Water Heating System to provide 5000 litres of hot water at 80°c. - The Average daily Electricity saving achieved is 465 kW (75% efficiency of electric coil) - The carbon emissions saved upon installation of the solar system offered by Heatray Solar would be 185 tons per year (300 days). - The project thus, has huge environmental benefits equivalent to carbon mitigation by a healthy forest of 67 acres.

Project at - Premier Industries, Chindwara, MP - Total 8000 L of water heated to 80 °c. per day for which total heat loadrequired is 4,40,000 kcal. - The heating is being done using Compound Parabolic Concentrators to provide 8000 liters of hot water at 80°c. - The Average daily fuel saving achieved is 55 L of LDO. - The carbon emissions saved upon installation of the solar system offered by Heatray Solar would be 43 tons per year. - The project thus has huge environmental benefits equivalent to carbon mitigation by a healthy forest of 20 acres.

A heat pump uses electricity and refrigerant to move heat from one location to another. A heat pump works on a reverse Carnot thermodynamic cycle. To provide heat, a heat pump works by extracting heat from the waste air or water outside through a heat exchanger unit and transferring it to the refrigerant. The refrigerant is then compressed, which increases the temperature significantly. The refrigerant is then moved to a heat exchanger unit of the heat pump, which then passes air or water over the hot refrigerant, increasing its temperature to accommodate the application's needs. Types of Heat Pump based on Heat source & Delivery 1. Air Source Heat Pump 2. Water Source Heat Pump