Chemical Composition
- CaCO₃ ≥95%
MW Pure is a chemical grade lime designed for all types of Lime PFR kilns and is used to produce high reactivity and high purity calcium oxide. It also supports the manufacturing of premium hydrated lime, precipitated calcium carbonate, milk of lime and a wide range of specialty calcium salts. The product is recognised for consistent quality and low impurities which together ensure steady performance across chemical processes. Tailored sizing adds to its suitability for different kiln technologies which makes it a preferred raw material across demanding industrial applications.
MW Pure serves key sectors within chemical and industrial processes due to its dependable purity and strength. The chemical composition stands at CaCO₃ greater than or equal to 95 percent which assures stable behaviour in every application.
MW Pure offers reliable performance through its high purity and process friendly characteristics. Each feature is designed to support predictable outcomes for users working with lime based systems and chemical production lines.
Together these benefits ensure higher efficiency and better control for users who require accuracy and consistency across critical industrial processes.
MW Pure is suited for a variety of applications across chemical and industrial operations. Its stability and quality make it a preferred ingredient for products and processes where purity and reactivity are essential to output quality.
These uses highlight the versatility of MW Pure and its ability to integrate smoothly with complex manufacturing needs across the chemical sector.
MW Pure is produced with strict quality control to ensure stable performance and consistent purity. The product begins with high grade limestone that meets the CaCO₃ greater than or equal to 95 percent requirement and undergoes controlled processing to maintain its chemical strength. Different particle sizes are prepared to match the needs of PFR kilns, rotary kilns and traditional kilns.
Every stage focuses on achieving minimal impurities and optimal reactivity to deliver a dependable material for various chemical processes.
Learn more about the industries Dr. Lime supports
High-grade lime sweetener corrects marginal lime, balances high-silica mixes, improves nodulization and kiln throughput and supports consistent strength development at grinding—stabilizing clinker and cement performance across plants.
As a fluxing agent, lime optimizes slag formation, reduces impurities and improves overall melt quality. In sintering, high-grade lime binds fines and lowers melt temperature for strong, reactive sinter—supporting efficient blast furnace and cleaner steel in secondary metallurgy.
Chemical-grade lime is a critical raw material for producing high-purity lime and calcium derivatives. Its consistent CaCO₃ content, low silica and minimal iron ensure predictable reactivity and clean conversion in calcination, hydration and chemical reaction processes. Whether in rotary kilns, PFR kilns, or shaft kilns, it supports reactive lime, PCC and specialty calcium compounds.
CFB and coal-based units rely on lime injection/FGD for SO₂ capture. High-reactivity lime improves capture efficiency in both retrofit and new builds—helping plants meet stringent air-quality norms.
High-calcium, low-iron lime lowers melting temperatures and stabilizes batch chemistry. Tight sizing ensures uniform melt flow; ultra-low iron is critical for solar, optical and premium architectural glass clarity.
High-purity CaCO₃ provides bioavailable calcium for bone mineralization, muscle function and eggshell formation. Controlled particle sizes enable uniform mixing, predictable release and consistent feed performance across growth stages.
To manage soil acidity, lime supplies calcium (and magnesium where dolomitic), improving structure, microbial activity and nutrient availability. Result: better root development, balanced uptake and improved yields.
GCC/lime powder is a cost-effective mineral extender for plastics, paints, rubber and more—improving bulk density, workability, rheology, dimensional stability and throughput with consistent sizing and low moisture.