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Cement plant

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Acting upstream the kiln to improve clinker reactivity

Raw meal with optimized fineness

The transformation of raw material into clinker with the consumption of fossil fuels is responsible for the majority of CO₂ emissions at the cement plant.

CHRYSO®AMC 12 grinding aids significantly improve grinding efficiency and reduce agglomeration and coating issues in the mill. The energy consumption per ton of limestone is reduced while the fineness targets are achieved

DARAGRIND® grinding aids improve the grinding process efficiency to achieve raw meal fineness and enhance the clinkerization reactions in the kiln.
Actively facilitating the production of cement at all the stages of the manufacturing process helps reduce overall carbon emissions.

CHRYSO®AMC is a range of cement grinding additives designed for ball milling processes. These robust solutions are used to increase mill efficiency and maintain consistent cement quality regardless of clinker quality. The result is significant savings in terms of production, energy and maintenance.

Our additive solutions:

DARAGRIND®
CHRYSO®AMC

Our services:

Immediate product recommendation with our DASH® application
Tailor made solutions to meet specific cement type needs
Mill audits & VRM diagnosis – to provide further process optimization & savings

Act upstream the kiln to improve clinker reactivity

Enabling substitution of clinker by lower carbon materials

Lower your carbon footprint with no compromise on cement performance

With the transition to new cements as CEM II/C-M, CEM VI, mitigating the impact on cement performance and mechanical strengths is key.

OPTEVA®, CHRYSO®AMA & EnviroAdd^TM Performance Enhancing Grinding Additives allow cement manufacturers to achieve superior cement quality with Supplementary Cementitious Materials such as limestone, fly ash, natural pozzolan, slag, etc. Cement manufacturers can significantly reduce CO₂ emissions per ton of cement by reducing the clinker content and optimizing the grinding process efficiency.

Focus on our technology: CHRYSO^® AMA 100 EL, lighten your clinker factor

CHRYSO®AMA 100 EL is a robust and powerful activation technology that achieves high levels of mechanical strength in blended cement. This technology is optimal for blended cements and maximizes the use of locally available supplementary cementitious materials to produce high quality, low carbon cements.

Our additive solutions:

OPTEVA®
CHRYSO®AMA
EnviroAdd^TM

Our services:

Immediate product recommendation with our DASH® application
Tailor made solutions to meet specific cement type needs
Mill audits & VRM diagnosis – to provide further process optimization & savings

Substitution of clinker by lower carbon materials

Optimizing grinding process efficiency

Addressing process efficiency and energy consumption

Optimizing the mill to achieve higher productivity and efficiency while maintaining the targeted quality of cement can be a challenge, especially when it comes to blended cements. With our strong technical expertise and experience in the industry, we have been able to develop high performance grinding aids to overcome these challenges.

TAVERO® & CHRYSO®ADM grinding aids are designed to increase mill output to increase the cement plant production capacity and reduce energy consumption and therefore reduce CO₂ emissions. Overall, using TAVERO & CHRYSO®ADM additives enable cement producers to reduce carbon emissions per ton of cement while improving material handling and throughput.

CHRYSO®VRM and TAVERO®VM are ranges of high-performance cement grinding aids designed specifically for grinding in vertical mills, which significantly reduce vibration, improve process stability for higher productivity, and improve cement quality by reducing pre-hydration in cement.

Focus on our technology: CHRYSO^®ICARE, processing cement reactivity

CHRYSO®ICARE is a patented innovation which increases the reactivity of cement by creating a synergistic effect between chemical and mechanical activation to significantly reduce the clinker factor and therefore the CO₂ footprint of cement.