Asha Enterprises

All types of cutsomize Ice Cans available. Our cans are rigid in design and comes with good fabrication and upper top reiveted M.S. patti duly painted. Available in Sizes :  • 50 kgs, 100 kgs, 150 kgs etc. Galvanized iron and stainless steel are two common materials used for manufacturing ice can molds in ice plants. Here's an overview of each material and its characteristics: 1. **Galvanized Iron Ice Cans Molds:** - **Material:** Galvanized iron is steel that has been coated with a layer of zinc to protect it from corrosion. It is known for its durability and resistance to rust and corrosion, making it suitable for use in harsh environments such as ice plants. - **Cost-Effectiveness:** Galvanized iron is generally less expensive than stainless steel, making it a cost-effective option for manufacturing ice can molds. - **Durability:** Galvanized iron ice can molds are durable and long-lasting, able to withstand the rigors of ice production and handling. - **Corrosion Resistance:** The zinc coating provides corrosion resistance, although prolonged exposure to acidic or alkaline environments may eventually lead to corrosion. - **Maintenance:** Galvanized iron molds require minimal maintenance and can be easily cleaned and maintained to prolong their lifespan. 2. **Stainless Steel Ice Cans Molds:** - **Material:** Stainless steel is an alloy of iron with a minimum of 10.5% chromium content, which provides excellent corrosion resistance. It is highly durable and resistant to rust and corrosion, even in harsh environments. - **Corrosion Resistance:** Stainless steel offers superior corrosion resistance compared to galvanized iron, making it ideal for applications where hygiene and cleanliness are critical, such as food processing. - **Hygienic Properties:** Stainless steel is non-porous and easy to clean, making it suitable for use in food-related industries where cleanliness is essential. - **Longevity:** Stainless steel ice can molds have a longer lifespan compared to galvanized iron molds, making them a more sustainable option in the long run. - **Cost:** Stainless steel molds are typically more expensive than galvanized iron molds due to the higher cost of the material and manufacturing processes. - **Versatility:** Stainless steel molds are suitable for a wide range of ice production applications and can withstand high temperatures and pressures. In summary, both galvanized iron and stainless steel are viable options for manufacturing ice can molds in ice plants. The choice between the two materials depends on factors such as cost, corrosion resistance, durability, and hygiene requirements. Stainless steel is often preferred for its superior corrosion resistance and hygienic properties, especially in food-related industries, while galvanized iron offers cost-effectiveness and durability in less demanding environments.

We have below type of agitators readily available with us. This Agitators are used in IBT Tanks in Block Ice Plants to circulate the chilled water in the IBT Tank to help making the Ice Slabs. 

Available Options :

• M.S. Slow Speed V Belt Driven Brine Agitator with Pulley and Fan
• M.S. High Speed Direct Driven Brine Agitator with Water housing HUD suitable with 960 RPM Motors of 5 & 7.5 HP 
• C.I. High Speed Direct Driven Brine Agitator suitable with 1440 RPM Motors of 1, 2, 4, 5 & 7.5 HP

We provide consultancy and contracting services for all kind of ammonia refrigeration systems including: Block ice making plants, tube ice making plants, cold storages and dairy refrigeration for supply and installation of new projects and machineries.

A herringbone type of coil evaporator is a specific design of evaporator used in ammonia ice plants for the production of ice. This type of evaporator is named after its distinctive herringbone-shaped coil arrangement. Here's an overview of its features and advantages: 1. **Coil Arrangement:** In a herringbone type of coil evaporator, the refrigerant coils are arranged in a herringbone pattern, resembling the bones of a fish. This arrangement maximizes the surface area available for heat transfer between the refrigerant and the water, enhancing the efficiency of the ice-making process. 2. **Efficient Heat Transfer:** The herringbone coil design allows for more uniform distribution of refrigerant flow and better heat transfer across the coil surface. This results in faster and more efficient cooling of the water, leading to higher ice production rates. 3. **Compact Design:** Despite its high heat transfer efficiency, the herringbone coil evaporator is relatively compact in size compared to other types of evaporators. This makes it suitable for installation in space-constrained environments, such as ice plants or cold storage facilities. 4. **Easy Maintenance:** The design of the herringbone coil evaporator typically allows for easy access to the coil surfaces, facilitating maintenance and cleaning operations. This helps to ensure optimal performance and longevity of the evaporator. 5. **Versatility:** Herringbone coil evaporators are versatile and can be used for various types of ice production, including block ice, tube ice, and plate ice. They are suitable for a wide range of applications in the food and beverage industry, fisheries, construction, and agriculture. 6. **Energy Efficiency:** Due to their efficient heat transfer characteristics, herringbone coil evaporators contribute to overall energy efficiency in ice production. They help minimize energy consumption while maximizing ice production capacity, leading to lower operating costs for ice plants. Overall, the herringbone type of coil evaporator is a popular choice for ammonia ice plants due to its efficient heat transfer, compact design, ease of maintenance, and versatility in ice production applications. It helps ice plants achieve high productivity and energy efficiency while maintaining consistent ice quality.

Tube ice plants are facilities designed for the production of tube ice, a type of cylindrical ice commonly used in various industries, including food and beverage, fisheries, and concrete cooling. Here's an overview of tube ice plants and how they operate: 1. **Ice Production Process:** - **Ice Formation:** Tube ice is formed by pouring water into vertical or horizontal tubes or molds, which are then frozen from the outside using a refrigerant. - **Harvesting:** Once the ice tubes reach the desired size and thickness, they are removed from the molds using a cutter or breaker mechanism. - **Storage:** The harvested tube ice is typically stored in insulated bins or storage areas to prevent melting and maintain quality until it is ready for distribution or use. 2. **Components of Tube Ice Plants:** - **Ice Making Machine:** The core component of a tube ice plant is the ice making machine, which consists of refrigeration systems, water pumps, ice molds or tubes, and harvesting equipment. - **Refrigeration System:** Tube ice machines use refrigeration systems to freeze water inside the ice molds or tubes. These systems typically use ammonia or Freon as the refrigerant. - **Water Supply System:** Tube ice plants require a reliable water supply system to supply water to the ice molds or tubes. Water quality is important to ensure the production of clear and pure ice. - **Control System:** Automated control systems are used to monitor and control various parameters such as water temperature, ice thickness, and harvesting cycles to optimize ice production and quality. 3. **Operation:** - **Ice Formation:** Water is continuously pumped into the ice molds or tubes, where it freezes layer by layer until the ice tubes reach the desired size. - **Harvesting:** Once the ice tubes have reached the desired thickness, they are ejected from the molds or tubes using a cutter or breaker mechanism. The harvested tube ice is then stored in bins or storage areas. - **Cleaning and Maintenance:** Regular cleaning and maintenance of the ice making machine and associated equipment are essential to ensure efficient operation and high-quality ice production. 4. **Applications:** - **Food and Beverage Industry:** Tube ice is commonly used in food and beverage applications, such as cooling beverages, food preservation, and display purposes. - **Fisheries:** Tube ice is used for seafood processing, storage, and transportation to maintain product freshness and quality. - **Concrete Cooling:** Tube ice is used in concrete cooling applications to control the temperature of concrete during mixing and curing processes, particularly in hot climates or large-scale construction projects. Overall, tube ice plants play a crucial role in various industries by providing a reliable source of tube ice for a wide range of applications, from food preservation to concrete cooling.

We are providing our valued clients with Ammonia Atmospheric Condenser. These products are manufactured by making use of 2"/50NB TATA, Mild Steel "C" class pipe and seamless U bends for interconnecting the pipes, configured with latest technology, these products strict adhere to the stringent quality parameters. These products are suitable for small and large sized ammonia plants like ice plants, cold storages and milk dairies. This product posses unique benefits over PHE's, shell & tube and evaporative condensers.

Features:

• Longer service life
• Smooth-finish
• High tensile strength
• Sturdy construction
• Resistance against corrosion

Electric Hand Hoist (Crane) :

• Specially designed to be used in Block Ice Plant. Comes with ISI mark electric motor. Can be operated manually during power failure and can lift upto 2 ice cans of 150 kgs each.

Manual Hand Hoist with Hobbing Cut Gears & Side Rails :

• Specially designed to be used in block ice plant. 100 % hand operated needs side rails to be installed for operation. Single/Double bearing is optional.

We expertise in exporting Ice Plants which are customised as per customer requirements and to suit local conditions in the country. We supply total project of Ice Plants which can we installed at the site anywhere in the Globe. We offer variable equipments to suit local conditions and taking into consideration the budget and requirement of the client.