Silos for Sale

Whether you’re planning to upgrade your production machinery, downsize your operation, close a plant, or get rid of excess inventory, one thing is certain; you will end up with unused equipment. Whatever your situation, there are several great reasons to sell surplus industrial and process equipment, and a liquidation service may be your best option. Selling your chemical or industrial processing machinery, production lines, or entire plants to used industrial equipment dealers is often preferable to private-party sales or simply junking it. Professional surplus equipment buyers allow you to sell large quantities quickly, alleviating you of the hassle involved in finding customers, negotiating terms, storing equipment, and arranging deliveries. Here are a half-dozen reasons to sell to a dealer: 1. Cash in Hand Reputable equipment liquidation service providers can buy single pieces of machinery, truckloads of components, or entire plants. Selling industrial equipment to

Vinyl chloride is an organochloride with the formula H 2 C=CHCl that is also called vinyl chloride monomer, VCM or chloroethene. This colorless compound is an important industrial chemical chiefly used to produce the polymer polyvinyl chloride (PVC). Nearly all production of VCM is based on ethylene, which is first reacted with chlorine to make ethylene dichloride (EDC). There are two routes commonly used to make EDC: direct chlorination using pure chlorine and ethylene , and oxychlorination in which the ethylene reacts with chlorine in hydrogen chloride. The EDC is then converted to VCM by thermal cracking and the hydrogen chloride by-product can be recycled to an oxychlorination plant to make more EDC. Many EDC/VCM complexes use an integrated chlorination-oxychlorination process which proceeds in three stages: the chlorination of ethylene in the liquid or vapor phase to make EDC; the thermal cracking of EDC to form VCM and hydrogen chloride; and the oxychlorination of ethylene wit

Discussion on Types of Air Separation Plants Introduction: From the mass production of steel to the manufacture of sophisticated micro-chips and semi-conductors by leading technology firms, air separation plants – and specifically access to the right volume and purity of oxygen and nitrogen – are critical to the successful operations of a variety of manufacturing and engineering businesses. Oxygen and nitrogen can be extracted from atmospheric air using both cryogenic and non-cryogenic air separation processes. So how can chemical engineers choose between the two processes and what does each involve? Non-cryogenic air separation is ideal for lower-volume processes where cost efficiency is key and lesser purity acceptable. Typically, purities of 85–95% oxygen purity and up to 99.999% nitrogen purity can be achievable and cost effective using a non-cryogenic process. By contrast, cryogenic air separation suits (ASU) a high-volume process where purities