LyraChem: A New Concept in Chemical Process R&D

LyraChem provides a technology-based process development service. Our approach is based on a fusion of expertise in chemistry, chemical engineering, mathematics and advanced technologies. This cross-disciplinary approach allows us to evaluate qualitative and quantitative process behaviour IN PARALLEL, effectively bridging the traditional gap between process chemistry and chemical engineering. We are able to:

• Design and develop new synthetic routes to targets using innovative chemistry
• Evaluate the associated physicochemical process phenomena using our range of technologies
• Accurately describe your process chemistry in quantitative terms
• Achieve comprehensive process understanding

Key Benefits of Partnering with LyraChem

• Shorter development timescales with substantial cost-savings
• Robust and reliable processes that are ‘right first time’
• Increased process understanding, which facilitates rapid technology transfer, more economical operating conditions and consistent product quality.
• Speed and agility from a lean and dynamic team of multidisciplinary scientists

LyraChem: A unique combination of advanced technologies

LyraChem offers a unique combination of world-class technologies and expertise, all delivered via a lean and agile team with a fast response time. Our core areas of expertise and experience are:

• Multi-disciplinary synthetic chemistry
• Chemical engineering science
• Mechanism determination and kinetics
• Process modelling (especially modelling batch to continuous and reactive distillation)
• Advanced mathematics (statistics and mechanism determination)
• Proprietary cheminformatics (data analysis and workflow design)

A Dynamic, Multidisciplinary Approach to Process Development

LyraChem's service is unique in considering process manufacturing throughout the research and development lifecycle. Our multidisciplinary approach develops a broad and deep scientific knowledge-base, which helps to:

• Understand process chemistry at the mechanistic level
• Identify critical process factors and potential sources of process variability
• Simulate the effects of different processing conditions and reveal the interactions between lab and plant
• Determine safe and optimum processing conditions
• Ensure chemistry innovation is carried through into manufacturing procedures

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