In the 2021 issue of PotashWorks Magazine, Igor Makarenko, Global Director, Fertilizer, discusses how vertical plate technology that cools potash indirectly has emerged as a Goldilocks solutions that puts more control back into operators' hands.
In the September 2020 issue of Infovrac magazine, Solex discusses how advances in vertical heat transfer technology are providing operators with opportunities to reduce energy consumption and virtually eliminate emissions.
The September 2020 issue of Foundry Management & Technology Magazine highlights the collaboration between Solex Thermal Science, Waupaca Foundry and MT Systems on an indirect vertical heat transfer solution that resulted in reduced scrap/salvage rates and lower sand-additive costs.
In the September 2020 issue of World Fertilizer Magazine, Igor Makarenko of Solex Thermal Science discusses how an integrated de-dusting solution for cooling processes is helping reduce risk and produce a better fertilizer.
In the August 2020 issue of Foundry Management and Technology magazine, Solex Thermal Science discusses how advances in heat-transfer technology are giving foundries an opportunity to reset their prospects versus mounting regulatory, technological and competitive pressures.
In the June 2020 issue of Process Heating Magazine, Solex Thermal Science explores the history of heating/cooling bulk solids, including advancements that have led to global use of indirect plate exchange technology.
In the May/June 2020 issue of World Fertilizer Magazine, Igor Makarenko of Solex Thermal Science discusses how closed-loop systems used in vertically stacked-plate heat exchange technology are lessening the burden on fertilizer producers of having to source clean streams of water.
In World Fertilizer Magazine, Igor Makarenko, Global Director, Fertilizer at Solex Thermal Science, examines how an indirect plate-type heat exchanger can be used in the final fertilizer cooling step in order to avoid caking.
The cement industry is under pressure to reduce operating costs. Some of the challenges associated with the current commercially avaliable technologies for cement cooling are their high energy consumption, high maintenance cost, and high water consumption.
