Masonry Brick Production - Term Paper Example

However, scientific improvements have made modern brick plants substantially more competent and have enhanced the overall value of the products. A more comprehensive acquaintance of raw materials and their characteristics, improved control of firing, enhanced kiln designs and more sophisticated mechanization have contributed to advancing the brick production. Brick is produce from clay or shale moulded, dried and fired into a sturdy ceramic creation (Demir & Orhan, 2003). Brick producers handle sustainability by situating manufacturing plants near clay sources to decrease shipping, by recycling of procedure waste, by recovering excavation site where mining has happened, and by practising measures to minimise plant emissions.

Most brick are utilized within five hundred miles of a brick production facility. The report provides essential information for understanding masonry demands and requirements (Kermeli, Worrell & Masanet, 2011). Diesel or another type of fuel is appropriate to provide power for crushers, while electricity is essential during this stage to guarantee smooth operation of conveyors. Energy is a fundamental resource in almost every industry, since it drives different functions or production processes.

Without energy, these procedures would breakdown, rendering a manufacturing unproductive and incapable of attaining production capacities (Kreh, 2003). Masonry Brick Production uses contemporary kiln cars that run through dryers, powered either by thermal energy or electrical energy source, derived from combusting coal or appropriate fossil fuels (Kreh, 2003). Most of the water in the material mixture is dispersed in drying compartments at a temperature varying from 400C to 2000C. The other energy demanding step in brick production is firing.

Just like in other stages, thermal and electrical energy is essential to fire the kilns to temperatures ranging from 10000C to 12000C, based on